mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising: a. from 30 wt% to 50 wt% of a polymer component; b. from 10 wt% to 70 wt% of a flame retardant component comprising Mg 2, H 2 Mg 3 (SiO 3) 4, γ-AlO, α-AlO, Al 3, or a combination thereof; c. from 0.01 wt% to 5 wt% of an acid component comprising phosphorous acid or boric acid or both, or of an acid component comprising aluminum diethyl phosphinic acid, zinc phosphate, or a combination thereof; and d. from greater than 0 wt% to 60 wt% of a filler, wherein the filler comprises AlN, Al 4 C 3, Al 2 O 3, BN, AlON, MgSiN2, SiC, Si3N4, graphite, expanded graphite, graphene, carbon fiber; ZnS, CaO, MgO, ZnO, TiO 2, CaCO 3, mica, BaO, BaSO 4, CaSiO 3, ZrO 2, SiO 2, glass beads, glass fiber, MgO•xAl 2 O 3, CaMg(CO 3) 2, ceramic-coated graphite, or a clay; or a combination thereof, wherein the combined weight percent value of all components does not exceed 100 wt%; wherein all weight percent values are based on the total weight of the composition; and wherein the composition has: i. a thermal conductivity of at least 0.5 W/mK for through plane thermal conductivity as tested in accordance with ASTM E1461; ii. flame retardancy of at least V1 at 3 mm using the UL94 test standard; and iii. melt volume flow rate of at least 5 cm 3 /10 min using ASTM D 1238. a. from 30 wt% to 50 wt% of a polymer component; b. from 10 wt% to 70 wt% of a flame retardant component comprising Mg 2, H 2 Mg 3 (SiO 3) 4, γ-AlO, α-AlO, Al 3, or a combination thereof; c. from 0.01 wt% to 5 wt% of an acid component comprising phosphorous acid or boric acid or both, or of an acid component comprising aluminum diethyl phosphinic acid, zinc phosphate, or a combination thereof; and d. from greater than 0 wt% to 60 wt% of a filler, wherein the filler comprises AlN, Al 4 C 3, Al 2 O 3, BN, AlON, MgSiN2, SiC, Si3N4, graphite, expanded graphite, graphene, carbon fiber; ZnS, CaO, MgO, ZnO, TiO 2, CaCO 3, mica, BaO, BaSO 4, CaSiO 3, ZrO 2, SiO 2, glass beads, glass fiber, MgO•xAl 2 O 3, CaMg(CO 3) 2, ceramic-coated graphite, or a clay; or a combination thereof, wherein the combined weight percent value of all components does not exceed 100 wt%; wherein all weight percent values are based on the total weight of the composition; and wherein the composition has: i. a thermal conductivity of at least 0.5 W/mK for through plane thermal conductivity as tested in accordance with ASTM E1461; ii. flame retardancy of at least V1 at 3 mm using the UL94 test standard; and iii. melt volume flow rate of at least 5 cm 3 /10 min using ASTM D 1238. i. a thermal conductivity of at least 0.5 W/mK for through plane thermal conductivity as tested in accordance with ASTM E1461; ii. flame retardancy of at least V1 at 3 mm using the UL94 test standard; and iii. melt volume flow rate of at least 5 cm 3 /10 min using ASTM D 1238.
A joint for knee joint orthotics, prosthetics and supports, with at least one first joint leg associated to the lower leg and at least one second joint leg associated to the thigh, which are overlappingly connected with their ends, in such a way that with an increasing angle between the joint legs (1, 2) a combined rolling and sliding movement in the plane defined by the two joint legs is obtained, characterized in that, in the first joint leg, a first essentially straight slot-like recess is formed, which is directed essentially in the direction of the longitudinal axis of the joint leg, that further in the first joint leg an essentially straight longitudinal slit is formed, which has a smaller width with respect to the recess and is essentially perpendicular to this recess, and that on the second joint leg two essentially circular guide elements (30, 31) are set, wherein the guide element directly abutting against the joint leg is eccentrically positioned and is provided with a diameter corresponding to the width of the recess, and wherein the second guide element is set on the first guide element, has a diameter corresponding to the width of the longitudinal slit and is positioned essentially at the center of the end of the joint leg overlapping the other joint leg, wherein, with an increasing angle between the joint legs (1, 2) a combined rolling and sliding movement of the second joint leg in the plane defined by both joint legs is obtained, which essentially leads radially towards the axis of the first joint leg in the quadrant enclosed between the two joint legs, wherein the fulcrum of the two joint legs (1, 2) remains substantially stationary for an angle between the joint legs between 0 and 25°.
A method for producing a peptide comprising an amino acid residue having an -OH group, characterized in that it comprises converting an -SH group of a peptide comprising an amino acid residue having the -SH group to an -OH group, wherein said method comprises the following steps (a) to (c): (a) allowing an -SH group in a peptide to react with a methylating agent to convert the -SH group to an -SMe group; (b) allowing an -SMe group obtained in the step (a) to react with a cyanizing agent; and (c) modifying the reaction conditions to become more basic than the conditions in the step (b), wherein the amino acid residue having an -SH group is a cysteine residue, and the production method further comprises the following step (o) before the step (a), and the -SH group of the cysteine in the peptide obtained in the step (o) reacts with a methylating agent in the step (a): (o) ligating a first peptide containing, at the C-terminus thereof, an amino acid residue in which a carboxyl group is substituted with an α-carboxythioester group represented by the formula -C(=O)-SR (wherein R is selected from an aryl group, and an alkyl group, which may be substituted with substituents), to a second peptide containing, at the N-terminus thereof, a cysteine residue according to a ligation method to obtain a peptide comprising a cysteine residue. (a) allowing an -SH group in a peptide to react with a methylating agent to convert the -SH group to an -SMe group; (b) allowing an -SMe group obtained in the step (a) to react with a cyanizing agent; and (c) modifying the reaction conditions to become more basic than the conditions in the step (b), (o) ligating a first peptide containing, at the C-terminus thereof, an amino acid residue in which a carboxyl group is substituted with an α-carboxythioester group represented by the formula -C(=O)-SR (wherein R is selected from an aryl group, and an alkyl group, which may be substituted with substituents), to a second peptide containing, at the N-terminus thereof, a cysteine residue according to a ligation method to obtain a peptide comprising a cysteine residue.
An ice protection system for a constitution of related ice-susceptible components, said ice protection system comprising an electrothermal device for each component and a connector device; each electrothermal device having zones (41 P-44P, 41 L-44L, 41 S-44S, 41 T-44T) corresponding to respective surface regions on the ice-susceptible components; the connector device including an A-phase connector for electrical connection to the A-phase of a three-phase power system, a B-phase connector for electrical connection to the B-phase of the three-phase power system, and a C-phase connector for electrical connection to the C-phase of the three-phase power system; the zones including A-phase zones configured to receive electrical power supplied through the A-phase connector, B-phase zones configured to receive electrical power supplied through the B-phase connector and C-phase zones configured to receive electrical power supplied through the C-phase connector; each zone involving an electric load adapted to convert supplied electrical power into heat for synchronized ice-removal among the components; and the combined load RA of the A-phase zones, the combined load RB of the B-phase zones, and the combined load RC of the C-phase zones being approximately equal so as to ensure phase-to-phase load balance; each electrothermal device being configured to receive electrical power supplied by two but not three of the connectors (45A, 45B, 45C); characterized in that zones in each of the electrothermal devices receive electric power through a first one of the connectors; zones (43L, 43S, 41 L, 41 S) of two of the electrothermal devices (43, 41) receive electric power through a second one of the connectors; and zones (44L, 44S, 42L, 42S) of two other electrothermal devices (44, 42) receive electric power from a third one of the connectors.
An aqueous binder system which comprises an acid-functional polymer A and an epoxide-functional polymer B, wherein polymer A comprises moieties having at least one acid group, and polymer B comprises moieties having at least one epoxy group, and wherein the quantities of polymers A and B are chosen to provide a ratio of the amount of substance n (Ac) of acid groups in A to the amount of substance n of epoxide groups in B of from 5 mol: 1 mol to 0.5 mol: 1 mol, polymer A being one or more of acrylic copolymers referred to as AA, polyesters referred to as AE, and polyurethanes referred to as AU, wherein the said acrylic copolymers AA comprise moieties derived from hydroxy-functional olefinically unsaturated monomers referred to as A4.
A communication system comprising: one or more base stations; a plurality of remotely located terminal units; the base stations and the remotely located terminal units comprising means for transmitting and receiving data over communication links; a communication manager that is configured to define and manage said communication links; characterised in that the communication links comprise one or more low bandwidth communication links configured for communication between one or more base stations and one or more terminal units, and one or more high bandwidth communication links configured for communication between one or more base stations and one or more terminal units; the terminal units are allocated information which is stored on the terminal units, the information including a time slot to use for a low bandwidth communication link; the communication manager comprises means for adjusting the latency of any communication link, such that the data transfer rate and latency is guaranteed for at least one of the communication links; and the communication system further comprises means for increasing the number of communication links without impacting the data transfer rate, latency guarantee or spectral efficiency of the communication links. one or more base stations; a plurality of remotely located terminal units; the base stations and the remotely located terminal units comprising means for transmitting and receiving data over communication links; a communication manager that is configured to define and manage said communication links; characterised in that the communication links comprise one or more low bandwidth communication links configured for communication between one or more base stations and one or more terminal units, and one or more high bandwidth communication links configured for communication between one or more base stations and one or more terminal units; the terminal units are allocated information which is stored on the terminal units, the information including a time slot to use for a low bandwidth communication link; the communication manager comprises means for adjusting the latency of any communication link, such that the data transfer rate and latency is guaranteed for at least one of the communication links; and the communication system further comprises means for increasing the number of communication links without impacting the data transfer rate, latency guarantee or spectral efficiency of the communication links.
A control circuit comprising: a cell area comprising a plurality of cells arranged therein, each of the cells comprising: a first conductor having at least one capacitance component (C1, C2); a second conductor connected to the first conductor and having an inductance component; and a feed line provided to be in non-contact with the first conductor and the second conductor, wherein a size of each of the cells is smaller than a wavelength of a signal to be influenced by the cells; characterised in that the control circuit further comprises at least one feed controller configured to control at least one of permittivity and permeability of the cell area by changing the amount of a high-frequency current or a low-frequency current provided to the feed line of each of the cells. a cell area comprising a plurality of cells arranged therein, each of the cells comprising: a first conductor having at least one capacitance component (C1, C2); a second conductor connected to the first conductor and having an inductance component; and a feed line provided to be in non-contact with the first conductor and the second conductor, wherein a size of each of the cells is smaller than a wavelength of a signal to be influenced by the cells; characterised in that the control circuit further comprises a first conductor having at least one capacitance component (C1, C2); a second conductor connected to the first conductor and having an inductance component; and a feed line provided to be in non-contact with the first conductor and the second conductor, wherein a size of each of the cells is smaller than a wavelength of a signal to be influenced by the cells; characterised in that the control circuit further comprises at least one feed controller configured to control at least one of permittivity and permeability of the cell area by changing the amount of a high-frequency current or a low-frequency current provided to the feed line of each of the cells.
A razor wire barrier comprising: a frame including a floor and a plurality of walls extending from the floor defining an interior area which is open at a top thereof; a first section of razor wire within the interior area; and a component receptacle extending along the floor, adjacent the first section of razor wire, the component receptacle being operable to receive a component for moving the frame, wherein the plurality of walls each comprise a second section of razor wire, wherein the first section of razor wire includes a coil of razor wire, and wherein the second section of razor wire includes a planar section of razor wire. a frame including a floor and a plurality of walls extending from the floor defining an interior area which is open at a top thereof; a first section of razor wire within the interior area; and a component receptacle extending along the floor, adjacent the first section of razor wire, the component receptacle being operable to receive a component for moving the frame, wherein the plurality of walls each comprise a second section of razor wire, wherein the first section of razor wire includes a coil of razor wire, and wherein the second section of razor wire includes a planar section of razor wire.
A tunnel thruster electric driving unit comprising an electric motor, a controller for the electric motor and an electric motor support for mounting on a tunnel of an electric tunnel thruster, said electric motor support comprising a metal body with a first wall supporting the electric motor and an opposite second wall that is concave with the form of a cylindrical arch, wherein the controller of the electric motor is a heat generating electronic device, characterized in that the electric motor and the controller have separate housings and are mounted separately from each other to the electric motor support that is a heat conductive radiator element for cooling the controller, and at least one heat radiating surface of the controller is contacted to at least one heat-absorbing surface of the electric motor support.
A nucleic acid construct that comprises: a) a nucleotide sequence of the minimal promoter of the α1-antitrypsin gene; b) a nucleotide sequence encoding human Copper-transporting ATPase 2 (ATP7B); c) a polyadenylation signal sequence; and d) a 5'ITR and a 3'ITR sequences of an adeno-associated virus; wherein the minimal promoter of the α1 antitrypsin gene is the only eukaryotic transcription regulatory element sequence in said nucleic acid construct. a) a nucleotide sequence of the minimal promoter of the α1-antitrypsin gene; b) a nucleotide sequence encoding human Copper-transporting ATPase 2 (ATP7B); c) a polyadenylation signal sequence; and d) a 5'ITR and a 3'ITR sequences of an adeno-associated virus;
A reactive binder mixture comprising, based on the total dry matter: 10 to 40 wt.% hydraulic cement, 40 to 80 wt.% calcium sulphate hemihydrate, 2 to 35 wt.% pozzolanic material, and 0.1 to 5 wt.% booster additive, wherein the booster additive is selected from soluble alkaline earth salts, strong acids and combinations thereof. 10 to 40 wt.% hydraulic cement, 40 to 80 wt.% calcium sulphate hemihydrate, 2 to 35 wt.% pozzolanic material, and 0.1 to 5 wt.% booster additive, wherein the booster additive is selected from soluble alkaline earth salts, strong acids and combinations thereof.
A method for the characterization of the 3D orientation of at least one emitting dipole within a specimen, wherein the specimen is positioned in a front focal plane (P 1) of a microscope objective lens with a given numerical aperture, the method comprising: - splitting a light beam (B 0) emitted by said at least one emitting dipole and exiting said objective lens into a first and a second beams (B 1, B 2), wherein the first beam is directed to a first detection channel and the second beam is directed to a second detection channel; - spatially filtering said first beam to select a given range of spatial low frequencies of said first beam, by using a spatial frequency filter arranged in a filtering plane (P 2) of the first detection channel, wherein said filtering plane is optically conjugated with a back focal plane of said microscope objective lens; - splitting each of said filtered first beam and said second beam into two beams linearly polarized, thus providing four beams linearly polarized (LP 1, LP 2, LP 3, LP 4) having four different directions of polarization ( i); - detecting with an optical detection unit said four beams linearly polarized in a detection plane (P 1 ") optically conjugated with the front focal plane of said microscope objective lens, thus forming four intensity images (I 1, I 2, I 3, I 4) of said at least one emitting dipole; - determining, from said four intensity images, in a predefined frame (X, Y, Z) of the specimen, the mean orientation (ρ, η) and the angular aperture (δ) of the distribution of the 3D orientation of said at least one emitting dipole, during an acquisition time of said four intensity images. - splitting a light beam (B 0) emitted by said at least one emitting dipole and exiting said objective lens into a first and a second beams (B 1, B 2), wherein the first beam is directed to a first detection channel and the second beam is directed to a second detection channel; - spatially filtering said first beam to select a given range of spatial low frequencies of said first beam, by using a spatial frequency filter arranged in a filtering plane (P 2) of the first detection channel, wherein said filtering plane is optically conjugated with a back focal plane of said microscope objective lens; - splitting each of said filtered first beam and said second beam into two beams linearly polarized, thus providing four beams linearly polarized (LP 1, LP 2, LP 3, LP 4) having four different directions of polarization ( i); - detecting with an optical detection unit said four beams linearly polarized in a detection plane (P 1 ") optically conjugated with the front focal plane of said microscope objective lens, thus forming four intensity images (I 1, I 2, I 3, I 4) of said at least one emitting dipole; - determining, from said four intensity images, in a predefined frame (X, Y, Z) of the specimen, the mean orientation (ρ, η) and the angular aperture (δ) of the distribution of the 3D orientation of said at least one emitting dipole, during an acquisition time of said four intensity images.
A process for adjusting the filling level in a gasifier for carbonaceous material in the form of a floating bed reactor, in which biomass and/or coke is transformed into a product gas, comprising the steps of: providing a substantially conical, downwardly tapering floating bed reactor comprising an upper reactor ceiling and a lower inlet opening into which biomass and/or coke and a gaseous gasification agent are introduced into the floating bed reactor from the bottom to the top, so that a fixed bed, which is elevated from the location of the inlet opening and held in suspension, forms within the conical reactor, wherein the flow rate of the gaseous gasification agent together with the biomass and/or the coke is adapted in such a way to the shape of the flow cross-section of the conical reactor taking into account the material properties of the biomass and/or the coke that a stable bed held in suspension is formed in the floating bed reactor, wherein the filling level of the fixed bed held in suspension within the floating bed reactor is adjusted by extracting gas, together with particles, through an extraction pipe in the reactor ceiling, which pipe protrudes downwardly into the reactor room, wherein the position of the lower end of the extraction pipe defines the upper position of the floating bed within the reactor. providing a substantially conical, downwardly tapering floating bed reactor comprising an upper reactor ceiling and a lower inlet opening into which biomass and/or coke and a gaseous gasification agent are introduced into the floating bed reactor from the bottom to the top, so that a fixed bed, which is elevated from the location of the inlet opening and held in suspension, forms within the conical reactor, wherein the flow rate of the gaseous gasification agent together with the biomass and/or the coke is adapted in such a way to the shape of the flow cross-section of the conical reactor taking into account the material properties of the biomass and/or the coke that a stable bed held in suspension is formed in the floating bed reactor, wherein the filling level of the fixed bed held in suspension within the floating bed reactor is adjusted by extracting gas, together with particles, through an extraction pipe in the reactor ceiling, which pipe protrudes downwardly into the reactor room, wherein the position of the lower end of the extraction pipe defines the upper position of the floating bed within the reactor.