mhurhangee/patent-ind-claim-en huggingface dataset:
Vehicle, comprising a buddy space having a storage space , wherein: - the buddy space is defined by two complementary main parts that define a left half and a right half of the buddy space and that define both an outer contour of the buddy space and an inner contour of the storage space to thereby form a main structural part of the buddy space that renders a structural frame inside the buddy space redundant; and - the vehicle further comprising a battery compartment that is configured to receive at least two battery packs that are arranged parallel relative to each other, wherein the battery compartment extends at least partially under a footrest area of the vehicle and is configured to couple the at least two battery packs to form an assembly of the battery packs and thereby define a battery , characterized in that the storage space of the buddy space is configured to allow a user to insert and remove the at least two battery packs from the battery compartment via access provided by the storage space . - the buddy space is defined by two complementary main parts that define a left half and a right half of the buddy space and that define both an outer contour of the buddy space and an inner contour of the storage space to thereby form a main structural part of the buddy space that renders a structural frame inside the buddy space redundant; and - the vehicle further comprising a battery compartment that is configured to receive at least two battery packs that are arranged parallel relative to each other, wherein the battery compartment extends at least partially under a footrest area of the vehicle and is configured to couple the at least two battery packs to form an assembly of the battery packs and thereby define a battery ,
A curable casting resin precursor, comprising (a) a first part (A) comprising: (a1) at least one epoxy resin; (b) a second part (B) comprising: (b1) at least one first amine-based epoxy curing agent; (b2) optionally, at least one second amine-based epoxy curing agent; (b3) at least one triphenylmethane dye; (b4) at least one mineral filler; (b5) at least one phenolic lipid. (a) a first part (A) comprising: (a1) at least one epoxy resin; (b) a second part (B) comprising: (b1) at least one first amine-based epoxy curing agent; (b2) optionally, at least one second amine-based epoxy curing agent; (b3) at least one triphenylmethane dye; (b4) at least one mineral filler; (b5) at least one phenolic lipid. (b1) at least one first amine-based epoxy curing agent; (b2) optionally, at least one second amine-based epoxy curing agent; (b3) at least one triphenylmethane dye; (b4) at least one mineral filler; (b5) at least one phenolic lipid.
A electrophysiologic device comprising: an elongated body having proximal and distal ends and at least one lumen therethrough; a first coil configured as a location sensor and wound around a side wall of a distal portion of the elongated body, wherein the first coil comprises a plurality of helical wraps of a first continuous wire that extends to the proximal end of the elongated body through the at least one lumen, wherein the first wire is routed through a first opening in the side wall of the distal portion of the elongated body, and wherein the first opening communicates with the at least one lumen; and a second coil configured as a ring electrode and wound around the side wall of the distal portion of the elongated body, wherein the second coil comprises a plurality of helical wraps of a second continuous wire that extends to the proximal end of the elongated body through the at least one lumen, wherein the second wire is routed through a second opening in the side wall of the distal portion of the elongated body, and wherein the second opening communicates with the at least one lumen. an elongated body having proximal and distal ends and at least one lumen therethrough; a first coil configured as a location sensor and wound around a side wall of a distal portion of the elongated body, wherein the first coil comprises a plurality of helical wraps of a first continuous wire that extends to the proximal end of the elongated body through the at least one lumen, wherein the first wire is routed through a first opening in the side wall of the distal portion of the elongated body, and wherein the first opening communicates with the at least one lumen; and a second coil configured as a ring electrode and wound around the side wall of the distal portion of the elongated body, wherein the second coil comprises a plurality of helical wraps of a second continuous wire that extends to the proximal end of the elongated body through the at least one lumen, wherein the second wire is routed through a second opening in the side wall of the distal portion of the elongated body, and wherein the second opening communicates with the at least one lumen.
Pressure sensor, with - two bodies connected to one another by means of an active brazing produced by the active brazing of an active brazing solder, wherein a first of the two bodies is a measuring membrane which can be deformed elastically depending on the pressure and can be exposed to a pressure (p), particularly a ceramic measuring membrane , and wherein the second of the two bodies is a base body , particularly a ceramic base body , wherein the base body and the measuring membrane are connected to an active brazing , wherein said active brazing connects an outer edge of the measuring membrane , including a pressure chamber , to an outer edge of a front face of the base body facing towards the measuring membrane , - wherein the active brazing has a thermal expansion coefficient that depends on the dimensions of the active brazing and the materials of the bodies, wherein said coefficient is adapted to a thermal expansion coefficient of at least one of the two bodies, particularly the measuring membrane , in such a way that a difference between the thermal expansion coefficient of the active brazing and a thermal expansion coefficient of the body to which the coefficient is adapted, particularly the measuring membrane , is lower, in terms of its value, than a difference between a thermal expansion coefficient of the active brazing solder and the thermal expansion coefficient of the body. - two bodies connected to one another by means of an active brazing produced by the active brazing of an active brazing solder, wherein a first of the two bodies is a measuring membrane which can be deformed elastically depending on the pressure and can be exposed to a pressure (p), particularly a ceramic measuring membrane , and wherein the second of the two bodies is a base body , particularly a ceramic base body , wherein the base body and the measuring membrane are connected to an active brazing , wherein said active brazing connects an outer edge of the measuring membrane , including a pressure chamber , to an outer edge of a front face of the base body facing towards the measuring membrane , - wherein the active brazing has a thermal expansion coefficient that depends on the dimensions of the active brazing and the materials of the bodies, wherein said coefficient is adapted to a thermal expansion coefficient of at least one of the two bodies, particularly the measuring membrane , in such a way that a difference between the thermal expansion coefficient of the active brazing and a thermal expansion coefficient of the body to which the coefficient is adapted, particularly the measuring membrane , is lower, in terms of its value, than a difference between a thermal expansion coefficient of the active brazing solder and the thermal expansion coefficient of the body.
An aseptic peripheral connection assembly for installing a sterilized peripheral in a bio-processing component via an aseptic connector (14-3) affixed to the component, the peripheral connection assembly comprising: a. a carrier (14-1) disposed within an applicator sleeve (14-2), the carrier comprising the sterilized peripheral and a sealing member configured to form a leak-tight seal with the aseptic connector on the bio-processing component at a location where the carrier is to be installed, the carrier configured to be inserted from a position within the applicator sleeve to a position engaged with the aseptic connector to form the leak-tight seal; b. an applicator comprising the applicator sleeve (14-2) and an applicator connector (14-4), the applicator connector comprising a component-facing opening configured to connect to the aseptic connector on the bio-processing component; and c. a removable hermetic sealing tab (14-6) covering the component-facing opening of the applicator sleeve to maintain the sterilized peripheral in aseptic condition prior to installation in the bio-processing component. a. a carrier (14-1) disposed within an applicator sleeve (14-2), the carrier comprising the sterilized peripheral and a sealing member configured to form a leak-tight seal with the aseptic connector on the bio-processing component at a location where the carrier is to be installed, the carrier configured to be inserted from a position within the applicator sleeve to a position engaged with the aseptic connector to form the leak-tight seal; b. an applicator comprising the applicator sleeve (14-2) and an applicator connector (14-4), the applicator connector comprising a component-facing opening configured to connect to the aseptic connector on the bio-processing component; and c. a removable hermetic sealing tab (14-6) covering the component-facing opening of the applicator sleeve to maintain the sterilized peripheral in aseptic condition prior to installation in the bio-processing component.
A method for predicting responsiveness to statin treatment for reducing coronary heart disease (CHD) risk in a human, the method comprising testing a sample of nucleic acid from said human for the presence or absence of a single nucleotide polymorphism (SNP) in the nucleotide sequence of SEQ ID NO:3495 (rs1538185), wherein said human is determined to have an increased responsiveness to statin treatment for reducing CHD risk due to the presence of G at position 101 of SEQ ID NO:3495 or the presence of C at position 101 of its complement.
A method for manufacturing at least one monolithic inorganic porous support having a porosity comprised between 10% and 60% and an average pore diameter ranging from 0.5 μm to 50 μm, using a 3D printing machine (I) including at least one extrusion head movably mounted in space relative to and above a fixed horizontal plate , said 3D printing machine allowing the deposition of a string ( 7 i,j ) of inorganic composition to build, from a 3D digital model (M), a manipulable three-dimensional green structure intended to form the monolithic inorganic porous support(s) , the method consisting of: - having the inorganic composition including a powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a matrix, - supplying the extrusion head of the 3D printing machine (I) with the inorganic composition and causing its extrusion to form the string ( 7 i,j ), - building, using said string ( 7 i,j ) on said horizontal plate , the manipulable three-dimensional green structure in accordance with the 3D digital model (M), - accelerating the consolidation of the manipulable three-dimensional green structure in accordance with the 3D digital model (M) as the string ( 7 i,j ) is extruded, - placing this manipulable three-dimensional green structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 time the melting temperature of at least one material forming the powdery solid inorganic phase. - having the inorganic composition including a powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a matrix, - supplying the extrusion head of the 3D printing machine (I) with the inorganic composition and causing its extrusion to form the string ( 7 i,j ), - building, using said string ( 7 i,j ) on said horizontal plate , the manipulable three-dimensional green structure in accordance with the 3D digital model (M), - accelerating the consolidation of the manipulable three-dimensional green structure in accordance with the 3D digital model (M) as the string ( 7 i,j ) is extruded, - placing this manipulable three-dimensional green structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 time the melting temperature of at least one material forming the powdery solid inorganic phase.
Patch panel, comprising a box-shaped structure (A) made up of a lower wall (A1), an upper wall (A2), and two side walls (A3), comprising a sliding tray (B) along said lower wall (A1) of said box-shaped structure (A), a front panel (C) suited to be secured to said sliding tray (B) characterized in that said front panel (C) consists of an L-shaped profile having two orthogonal walls (C1, C2) which join together along a common longer edge (Cm), and where on each of said two walls (C1, C2) of said front panel (C) there are holes or openings (Cv', Cv") for screws (Va, Vb) or other elements to secure it to said tray (B) and to the side walls (A3) of the box-shaped structure (A), and where on each of the two walls (C1, C2) of said front panel (C) there are holes or openings (Cp', Cp") suited to house sockets and/or adapters, and where said front panel (C) can be secured to said sliding tray (B) so that one of the walls (C1, C2) of said front panel (C) is adherent to said sliding tray (B) and the other of the walls (C2, C1) of said front panel (C) is orthogonal to the sliding tray (B) and closes the front opening of the box structure (A) when said sliding tray (B) is completely inserted in the box-shaped structure (A), and wherein said front panel (C) is selectively installable in two different positions, where one of said wall (C1) or the other of said wall (C2) is arranged orthogonal to the sliding tray (B).
Polymer composition for production of shaped objects via selective sintering wherein the polymer composition comprises a thermoplastic material having: • a crystallisation half time of ≥ 30 s and ≤ 12 min at a supercooling of 50°C below the peak melt temperature, wherein the crystallisation half time t 1⁄2,c as determined via differential scanning calorimetry in accordance with ISO 11357-1 ; • a glass transition temperature T g of ≥ 50°C as determined in accordance with ISO 11357-2 ; • a peak melt temperature T p,m of ≥ 200°C as determined in accordance with ISO 11357-3 , first heating run; • an extrapolated first heating run melt onset temperature T ei,m of ≥ 5°C above the extrapolated first cooling run crystallisation end temperature T ef,c as determined in accordance with ISO 11357-1 , first heating and cooling run; and • a degree of crystallinity of ≥ 10.0 % as determined according to the formula: D = ΔH f ΔH f , 100 ∗ 100 % wherein: • D = degree of crystallinity of the thermoplastic material (%); • ΔH f = enthalpy of fusion of the thermoplastic material as determined in accordance with ISO 11357-3 ; • ΔH f,100 = enthalpy of fusion of the thermoplastic material in a 100% crystalline state wherein the thermoplastic material is a polyester. • a crystallisation half time of ≥ 30 s and ≤ 12 min at a supercooling of 50°C below the peak melt temperature, wherein the crystallisation half time t 1⁄2,c as determined via differential scanning calorimetry in accordance with ISO 11357-1 ; • a glass transition temperature T g of ≥ 50°C as determined in accordance with ISO 11357-2 ; • a peak melt temperature T p,m of ≥ 200°C as determined in accordance with ISO 11357-3 , first heating run; • an extrapolated first heating run melt onset temperature T ei,m of ≥ 5°C above the extrapolated first cooling run crystallisation end temperature T ef,c as determined in accordance with ISO 11357-1 , first heating and cooling run; and • a degree of crystallinity of ≥ 10.0 % as determined according to the formula: D = ΔH f ΔH f , 100 ∗ 100 % wherein: • D = degree of crystallinity of the thermoplastic material (%); • ΔH f = enthalpy of fusion of the thermoplastic material as determined in accordance with ISO 11357-3 ; • ΔH f,100 = enthalpy of fusion of the thermoplastic material in a 100% crystalline state wherein the thermoplastic material is a polyester. • D = degree of crystallinity of the thermoplastic material (%); • ΔH f = enthalpy of fusion of the thermoplastic material as determined in accordance with ISO 11357-3 ; • ΔH f,100 = enthalpy of fusion of the thermoplastic material in a 100% crystalline state
A method for controlling acoustic signals to be recorded and/or reproduced by an electro-acoustical sound system, wherein the method comprises the following steps: - determining an initial digital filter by solving an inverse problem, wherein the initial digital filter is configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system; - determining a frequency-dependent articulation parameter by executing a time spectral psychoacoustic automatic audio quality test on the initial digital filter; - tuning a frequency-dependent regularization parameter, used for determining the initial digital filter, by use of the frequency-dependent articulation parameter; and - determining , by use of the tuned frequency-dependent regularization parameter, a digital filter configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system, wherein the tuned frequency-dependent regularization parameter (β k ) is, up to an offset, a decreasing function of the frequency-dependent articulation parameter (Art k ), the offset including a frequency-dependent regularization parameter(β Nelson,k ) determined when executing the determining of the initial digital filter. - determining an initial digital filter by solving an inverse problem, wherein the initial digital filter is configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system; - determining a frequency-dependent articulation parameter by executing a time spectral psychoacoustic automatic audio quality test on the initial digital filter; - tuning a frequency-dependent regularization parameter, used for determining the initial digital filter, by use of the frequency-dependent articulation parameter; and - determining , by use of the tuned frequency-dependent regularization parameter, a digital filter configured to control acoustic signals to be recorded and/or reproduced by the electro-acoustical sound system,
An extraction arm for an extraction device having a suction pipe and a suction head , wherein the extraction arm defines a suction path that extends from an extraction region in the surroundings of the suction head through the suction pipe to the extraction device ; the extraction arm comprises an exchangeable filter which is arranged within the suction path; the filter is accommodated in a filter housing and the filter housing is designed to connect the filter and the suction pipe in an airtight manner; the filter housing has a main body which is connected to the suction pipe and a removable cover for closing the filter housing; the suction head comprises an extraction hood , which is connected to the main body and in the center of which the filter housing is located; the cover of the filter housing is releasably attached to the main body by a latching means; the latching means comprises a spring element on the cover, which spring element extends through a recess in the extraction hood in order to latch with the main body , so that the spring element can be released by hand outside the extraction region. the extraction arm defines a suction path that extends from an extraction region in the surroundings of the suction head through the suction pipe to the extraction device ; the extraction arm comprises an exchangeable filter which is arranged within the suction path; the filter is accommodated in a filter housing and the filter housing is designed to connect the filter and the suction pipe in an airtight manner; the filter housing has a main body which is connected to the suction pipe and a removable cover for closing the filter housing; the suction head comprises an extraction hood , which is connected to the main body and in the center of which the filter housing is located; the cover of the filter housing is releasably attached to the main body by a latching means; the latching means comprises a spring element on the cover, which spring element extends through a recess in the extraction hood in order to latch with the main body , so that the spring element can be released by hand outside the extraction region.
Electrical interface of a pump unit for the galvanically isolated transmission of an analogue input signal to an electronics unit , comprising a transformer with a first (L1) and a second coil (L2) coupled in a magnetic circuit with the first coil (L1), characterised by the first coil (L1) being connected to an interface input for application of the input signal and the second coil (L2) being connected to a variable resistor circuitry of a measuring circuit , which is configured to apply a changing voltage to the second coil (L2) through the change of the resistor circuitry and to determine a time period from the chronological sequence of at least one electrical parameter of the resistor circuitry, and to determine the level of the input signal from this.
An optical filter comprising: a first reflecting film ; a second reflecting film opposed to the first reflecting film ; a first conductive film disposed on a surface of the first reflecting film , the surface being opposed to the second reflecting film , in an overlapping manner, and having a light transmissive property and an electrical conductivity; a second conductive film disposed on a surface of the second reflecting film , the surface being opposed to the first reflecting film , in an overlapping manner, and having a light transmissive property and an electrical conductivity; a first terminal electrically connected to the first conductive film ; and a second terminal electrically connected to the second conductive film , wherein connection between the first terminal and the second terminal is electrically switchable, characterized in that at least one of the first reflecting film and the second reflecting film has a side surface exposed, so that the side surface of the first reflecting film is not covered with the first conductive film and/or the side surface of the second reflecting film is not covered with the second conductive film . a first reflecting film ; a second reflecting film opposed to the first reflecting film ; a first conductive film disposed on a surface of the first reflecting film , the surface being opposed to the second reflecting film , in an overlapping manner, and having a light transmissive property and an electrical conductivity; a second conductive film disposed on a surface of the second reflecting film , the surface being opposed to the first reflecting film , in an overlapping manner, and having a light transmissive property and an electrical conductivity; a first terminal electrically connected to the first conductive film ; and a second terminal electrically connected to the second conductive film , wherein connection between the first terminal and the second terminal is electrically switchable, characterized in that at least one of the first reflecting film and the second reflecting film has a side surface exposed, so that the side surface of the first reflecting film is not covered with the first conductive film and/or the side surface of the second reflecting film is not covered with the second conductive film .