mhurhangee/ep-ind-claims huggingface dataset:
Vehicle vibration device comprising a horizontal vibration means and comprising a stabilisation means for stabilising a horizontal central position of the horizontal vibration means, in which the horizontal vibration means is arranged so as to be able to vibrate horizontally in the vehicle longitudinal direction and/or in the vehicle width direction, and in which the stabilisation means comprises a spring element (111, 130), the stabilisation means comprising a first and a second spring element (111, 130), the two spring elements (111, 130) preloading a piston rod having a common piston plate in a housing, the first spring element being designed as a mechanical spring element and the second spring element being designed as a gas spring element, and characterised in that the stabilisation means is integrated in a damping means of the vehicle vibration device.
Method for installing a program code packet onto a device, wherein a processor apparatus of the device receives the program code packet via a first data connection from a device-external data source and forms a checksum value in response to the received program code packet, wherein a control apparatus that differs from the processor apparatus is operated in the device and the control apparatus receives a reference checksum value from a specified device-external update server apparatus via a second data connection that differs from the first data connection and the checksum value formed by the processor apparatus from the same, and wherein, a specified installation procedure for installing the program code packet on the processor apparatus is initiated by the control apparatus in the processor apparatus only in the event that the checksum value and the reference checksum value are identical, whereby the decision on whether the program code packet is actually installed on the processor apparatus of the device is made by the control apparatus and not by the processor apparatus, wherein the installation procedure comprises a forced reset of the processor apparatus from outside the processor apparatus by the control apparatus after a specified duration, wherein, to force the reset by the control apparatus, an electric power supply apparatus, by means of which the processor apparatus is supplied with electrical energy, is actuated to interrupt an energy supply for the processor apparatus.
A composition comprising aggregates of insoluble alpha-glucan, wherein the aggregates have an average hydrodynamic radius of about 50-300 nm and a fractal dimension of about 1.6-2.4, and the insoluble alpha-glucan comprises alpha-1,3-glycosidic linkages.
A method of preparing a Drosera sp. based feed additive comprising of: a. Cultivation of Drosera sp. plants in vitro cultures, b. Solvent extraction with ethanol by shaking or ultrasound-assisted, c. Dilution of the extract with water to a content of 20 to 0.31 % ethanol. Ta b. 1 No Microorganism Effective extract concentration Microorganism carrier Place of occurrence Extract from Example: 1 Pseudomonas aeruginosa 10% broiler Internal organs 1 2 Enterococcus faecalis 5% broiler Internal organs 1 3 Escherichia coli No effect broiler Internal organs 1 4 Pseudomonas aeruginosa 10% broiler Internal organs 1 5 Pasteurella multocida 2,50% goose Internal organs 2 6 Gallibacterium anatis 1,25% hen Internal organs 2 7 Enterococcus cecorum 2,50% turkey Internal organs 2 8 Escherichia coli 10% broiler Internal organs 2 9 Escherichia coli 10% hen Internal organs 2 10 Escherichia coli 10% hen Internal organs 1 11 Salmonella Enteritidis 10% hen Internal organs 2 12 Enterococcus faecalis 5% hen Internal organs 2 13 Staphylococcus saprophiticis 1,25% broiler Internal organs 2 14 Salmonella Bethune 10% feathers 1 15 Candida albicans 0,63% turkey intestines 2 16 Candida albicans 0,63% turkey intestines 1 17 Pseudomonas aeruginosa 10% broiler Internal organs 1 18 Streptococcus alactolyticus 0,16% pigeon cloaca 2 19 Enterococcus columbae 10% pigeon cloaca 1 20 Enterococcus faecalis 5% broiler Internal organs 2 21 Candida albicans 1,25% turkey intestines 2 22 Candida rugosa 0,31% broiler intestines 2 23 Candida catenulata 1,25% broiler intestines 2 a. Cultivation of Drosera sp. plants in vitro cultures, b. Solvent extraction with ethanol by shaking or ultrasound-assisted, c. Dilution of the extract with water to a content of 20 to 0.31 % ethanol. Ta b. 1 No Microorganism Effective extract concentration Microorganism carrier Place of occurrence Extract from Example: 1 Pseudomonas aeruginosa 10% broiler Internal organs 1 2 Enterococcus faecalis 5% broiler Internal organs 1 3 Escherichia coli No effect broiler Internal organs 1 4 Pseudomonas aeruginosa 10% broiler Internal organs 1 5 Pasteurella multocida 2,50% goose Internal organs 2 6 Gallibacterium anatis 1,25% hen Internal organs 2 7 Enterococcus cecorum 2,50% turkey Internal organs 2 8 Escherichia coli 10% broiler Internal organs 2 9 Escherichia coli 10% hen Internal organs 2 10 Escherichia coli 10% hen Internal organs 1 11 Salmonella Enteritidis 10% hen Internal organs 2 12 Enterococcus faecalis 5% hen Internal organs 2 13 Staphylococcus saprophiticis 1,25% broiler Internal organs 2 14 Salmonella Bethune 10% feathers 1 15 Candida albicans 0,63% turkey intestines 2 16 Candida albicans 0,63% turkey intestines 1 17 Pseudomonas aeruginosa 10% broiler Internal organs 1 18 Streptococcus alactolyticus 0,16% pigeon cloaca 2 19 Enterococcus columbae 10% pigeon cloaca 1 20 Enterococcus faecalis 5% broiler Internal organs 2 21 Candida albicans 1,25% turkey intestines 2 22 Candida rugosa 0,31% broiler intestines 2 23 Candida catenulata 1,25% broiler intestines 2
A metal-oxide field-effect transistor (MOSFET) device, comprising: a gate electrode; a substrate comprising silicon carbide and having a surface that supports the gate electrode and defines a surface normal direction, wherein the substrate includes: a drift region including a first dopant type so as to have a first conductivity type; a well region adjacent to the drift region and proximal to the surface, wherein the well region includes a second dopant type so as to have a second conductivity type and a channel region disposed proximal to the gate electrode; and a source contact region adjacent to the well region, wherein the source contact region having the first conductivity type; an inter-layer dielectric disposed about the gate electrode and on a portion of the surface of the substrate; a contact layer disposed on a portion of the surface of the substrate covering a portion of the source contact region; and a source electrode disposed over the inter-layer dielectric and in electrical contact with the source contact region, characterised in that the source electrode is indium or tantalum, metals that inhibit a shift in a threshold voltage of the MOSFET device during operation. a gate electrode; a substrate comprising silicon carbide and having a surface that supports the gate electrode and defines a surface normal direction, wherein the substrate includes: a drift region including a first dopant type so as to have a first conductivity type; a well region adjacent to the drift region and proximal to the surface, wherein the well region includes a second dopant type so as to have a second conductivity type and a channel region disposed proximal to the gate electrode; and a source contact region adjacent to the well region, wherein the source contact region having the first conductivity type; an inter-layer dielectric disposed about the gate electrode and on a portion of the surface of the substrate; a contact layer disposed on a portion of the surface of the substrate covering a portion of the source contact region; and a source electrode disposed over the inter-layer dielectric and in electrical contact with the source contact region, characterised in that the source electrode is indium or tantalum, metals that inhibit a shift in a threshold voltage of the MOSFET device during operation. a drift region including a first dopant type so as to have a first conductivity type; a well region adjacent to the drift region and proximal to the surface, wherein the well region includes a second dopant type so as to have a second conductivity type and a channel region disposed proximal to the gate electrode; and a source contact region adjacent to the well region, wherein the source contact region having the first conductivity type;
A concentrated personal cleansing composition comprising: a. greater than 23 wt% surfactant, wherein said surfactant is in an isotropic phase in said composition; and b. greater than 0.05 wt% conditioning agent wherein the composition that is substantially free of organic solvent and hydrotrope, has a lather index greater than 0.75, preferably from 0.75 to 1.5 and a dissolution value of less than 200 sec, preferably from 10 sec to 200 sec, more preferably from 100 sec to 200 sec; where said surfactant comprises an effective amount of Isotropic Enabler, selected from the group consisting of: branched and non-branched versions of decyl and undecyl alkyl sulfates which are either ethoxylated or non-ethoxylated; decyl alcohol modified lauryl sulfate; paraffin sulfonates with chain lengths ranging from C 13 to C 17; mixtures of linear and branched-chain alcohol sulfates with carbon chain lengths C 12 to C 17 which are ethoxylated or non-ethoxylated; sodium salts of branched, methyl-2-hydroxy-decyl ether sulfates, hydroxyethyl-2-dodecyl ether sulfates, hydroxyethyl-2-decyl ether sulfates; monoethoxylated lauryl alkyl sulfates; and mixtures thereof; wherein said surfactant comprises an additional surfactant selected from the group consisting of anionic surfactants; wherein said surfactant comprises a co-surfactant selected from the group consisting of amphoteric surfactants, zwitterionic surfactants, cationic surfactants, nonionic surfactants and mixtures thereof. a. greater than 23 wt% surfactant, wherein said surfactant is in an isotropic phase in said composition; and b. greater than 0.05 wt% conditioning agent
A fusion protein comprising: a nanocage monomer; and an antibody fragment linked to the nanocage monomer, the antibody fragment comprising a first member of a binding pair; wherein a plurality of the fusion proteins self-assemble to form a nanocage in which a plurality of the antibody fragments decorate the exterior surface of the nanocage, whereby the first member of the binding pair is exposed for interacting with a second member of the binding pair, further comprising a linker between the nanocage monomer and the antibody fragment, wherein the linker comprises from 1 to 30 amino acid residues, wherein the nanocage monomer is ferritin, wherein the first member of the binding pair is a Fc portion of an antibody and the second member of the binding pair is a Fc receptor, and wherein the antibody fragment comprises a single-chain Fc (scFc). a nanocage monomer; and an antibody fragment linked to the nanocage monomer, the antibody fragment comprising a first member of a binding pair; wherein a plurality of the fusion proteins self-assemble to form a nanocage in which a plurality of the antibody fragments decorate the exterior surface of the nanocage, whereby the first member of the binding pair is exposed for interacting with a second member of the binding pair, further comprising a linker between the nanocage monomer and the antibody fragment, wherein the linker comprises from 1 to 30 amino acid residues, wherein the nanocage monomer is ferritin, wherein the first member of the binding pair is a Fc portion of an antibody and the second member of the binding pair is a Fc receptor, and wherein the antibody fragment comprises a single-chain Fc (scFc).
A method of preparing a zeolite having an AEI framework, the method comprising: a. forming a reaction mixture comprising one or more sources of silica, one or more sources of alumina, a base and one or more organic structure directing agents, where at least a portion of the alumina source is an FAU topological type zeolite and wherein the reaction mixture comprises less than 600 moles of water per mole of alumina, wherein the components are present in the following ratios, where the endpoints are included: SiO 2 /Al 2 O 3 25 - 75 OH - /SiO 2 0.35 - 0.75 SDA/SiO 2 0.01 - 0.12 Alkali metal cation/SiO 2 0.30 - 0.60 H 2 O/SiO 2 6 - 30 and b. reacting the reaction mixture at a temperature of 75 to 220 °C for between 0.1 and 20 days to form zeolite crystals having an AEI framework and a silica-to-alumina ratio of 10 to 30, wherein the reacting step, prior to removal of SDAs from the zeolite crystals, has a relative yield based on the weight of the AEI to the weight of the reaction mixture of ≥ 5%, and wherein the method does not comprise the use of a recycled mother liquor. a. forming a reaction mixture comprising one or more sources of silica, one or more sources of alumina, a base and one or more organic structure directing agents, where at least a portion of the alumina source is an FAU topological type zeolite and wherein the reaction mixture comprises less than 600 moles of water per mole of alumina, wherein the components are present in the following ratios, where the endpoints are included: SiO 2 /Al 2 O 3 25 - 75 OH - /SiO 2 0.35 - 0.75 SDA/SiO 2 0.01 - 0.12 Alkali metal cation/SiO 2 0.30 - 0.60 H 2 O/SiO 2 6 - 30 and b. reacting the reaction mixture at a temperature of 75 to 220 °C for between 0.1 and 20 days to form zeolite crystals having an AEI framework and a silica-to-alumina ratio of 10 to 30, wherein the reacting step, prior to removal of SDAs from the zeolite crystals, has a relative yield based on the weight of the AEI to the weight of the reaction mixture of ≥ 5%, and
A system for producing a molded article, in particular a tray-shaped article, from pulp, said system comprising: a split mold with - a female mold part, - a pressing tool having a male mold part, and - a first cavity for said pulp between said female mold part and said male mold part, and a heating device, said heating device being configured for heating said male mold part, wherein said female mold part comprises one or more further cavities and a first surface facing the interior of said first cavity and being for a layer of said pulp, said first surface allowing fluid to flow between said first cavity and said one or more further cavities, characterized by a first compressor configured for establishing a temporary elevated fluid pressure of more than 1 bar in said one or more further cavities. - a female mold part, - a pressing tool having a male mold part, and - a first cavity for said pulp between said female mold part and said male mold part, and a heating device, said heating device being configured for heating said male mold part, wherein said female mold part comprises one or more further cavities and a first surface facing the interior of said first cavity and being for a layer of said pulp, said first surface allowing fluid to flow between said first cavity and said one or more further cavities, characterized by a first compressor configured for establishing a temporary elevated fluid pressure of more than 1 bar in said one or more further cavities.
A method for processing a plurality of spatially modulated streams each received through a plurality of antennas at a receiver, the method comprising: applying Maximum Likelihood, ML, Log Likelihood Ratio, LLR, based detection to the spatially modulated streams to detect antenna selection, AS, bits; applying multiple input multiple output, MIMO, detection to separate the spatially modulated streams into respective streams for decoding, wherein the MIMO detection is based on the detected AS bits and uses a detection other than ML based detection; and decoding the respective streams. applying Maximum Likelihood, ML, Log Likelihood Ratio, LLR, based detection to the spatially modulated streams to detect antenna selection, AS, bits; applying multiple input multiple output, MIMO, detection to separate the spatially modulated streams into respective streams for decoding, wherein the MIMO detection is based on the detected AS bits and uses a detection other than ML based detection; and decoding the respective streams.
A guidewire (2, 6) comprising: a linear portion; a curved portion that is provided at a distal end side of the linear portion; a boundary portion that is provided between the linear portion and the curved portion; and a lubricant portion that is provided at a surface of the linear portion; characterized in that a low lubricant portion (64, 72) that is provided at a surface of the boundary portion and the curved portion disposed at a side opposite to a side towards which the curved portion is curved, a lubricating ability of the low lubricant portion (64, 72) being lower than that of the lubricant portion, and the lubricant portion is provided at a surface of the boundary portion and the curved portion disposed at the side towards which the curved portion is curved. a linear portion; a curved portion that is provided at a distal end side of the linear portion; a boundary portion that is provided between the linear portion and the curved portion; and a lubricant portion that is provided at a surface of the linear portion; characterized in that a low lubricant portion (64, 72) that is provided at a surface of the boundary portion and the curved portion disposed at a side opposite to a side towards which the curved portion is curved, a lubricating ability of the low lubricant portion (64, 72) being lower than that of the lubricant portion, and the lubricant portion is provided at a surface of the boundary portion and the curved portion disposed at the side towards which the curved portion is curved.
A swaging system for attaching surgical needles to sutures and testing the attachment strength comprising: a frame; a bottom swaging die mounted on said frame; a top swaging die mounted on said frame and being moveable up and down along a swaging axis (A 1) that is in alignment with said bottom swaging die; and characterized by said bottom swaging die comprising a hinge mechanism including a bottom plate mounted to said frame and a top plate overlying said bottom plate, wherein said top and bottom plates (152, 154) are pivotally connected to one another for enabling said top plate to pivot relative to said bottom plate, said bottom swaging die including a swaging tool mounted on said top plate that extends toward said top swaging die along the swaging axis (A 1), and a load cell disposed between said top and bottom plates (152, 154) for monitoring the load on said top plate; wherein said swaging tool includes an upper end having a top surface comprising a swaging notch for swaging a needle to a suture to form an armed surgical needle, and a testing notch, adjacent said swaging notch, for conducting a pull test on said armed surgical needle and wherein the hinge mechanism is orthogonal to the swaging axis (A 1). a frame; a bottom swaging die mounted on said frame; a top swaging die mounted on said frame and being moveable up and down along a swaging axis (A 1) that is in alignment with said bottom swaging die; and characterized by said bottom swaging die comprising a hinge mechanism including a bottom plate mounted to said frame and a top plate overlying said bottom plate, wherein said top and bottom plates (152, 154) are pivotally connected to one another for enabling said top plate to pivot relative to said bottom plate, said bottom swaging die including a swaging tool mounted on said top plate that extends toward said top swaging die along the swaging axis (A 1), and a load cell disposed between said top and bottom plates (152, 154) for monitoring the load on said top plate; wherein said swaging tool includes an upper end having a top surface comprising a swaging notch for swaging a needle to a suture to form an armed surgical needle, and a testing notch, adjacent said swaging notch, for conducting a pull test on said armed surgical needle and wherein the hinge mechanism is orthogonal to the swaging axis (A 1).
A seal and pivot assembly for a displacement lever assembly, the seal and pivot assembly comprising: a pivot base comprising a cylindrical base member having a longitudinal axis, an axial end surface, and a cylindrical through-bore extending through the cylindrical base member along the longitudinal axis; a pivot body comprising a cylindrical body member disposed on the longitudinal axis, characterised by first and second pivot body arms (142a, 142b) extending radially outward from opposite sides of the cylindrical body member, and a cylindrical through-bore extending through the cylindrical body member along the longitudinal axis coaxially with the cylindrical through-bore of the cylindrical base member; first and second grooves (134a, 134b) that extend along a transverse axis that is perpendicular to the longitudinal axis of the pivot base, the first and second grooves (134a, 134b) formed in first and second axial end surfaces, respectively, of one of the pivot base or the first and second pivot arms (134a, 134b) of the pivot body; first and second knife edges (146a, 146b) that extend along the transverse axis and carried by the other of the first and second axial end surfaces of the pivot base or the first and second pivot arms (134a, 134b) of the pivot body, the first and second knife edges (146a, 146b) in line contact with the first and second grooves (134a, 134b), respectively, such that the pivot body can pivot relative to the pivot base about a pivot axis that is coaxial with the transverse axis. a pivot base comprising a cylindrical base member having a longitudinal axis, an axial end surface, and a cylindrical through-bore extending through the cylindrical base member along the longitudinal axis; a pivot body comprising a cylindrical body member disposed on the longitudinal axis, characterised by first and second pivot body arms (142a, 142b) extending radially outward from opposite sides of the cylindrical body member, and a cylindrical through-bore extending through the cylindrical body member along the longitudinal axis coaxially with the cylindrical through-bore of the cylindrical base member; first and second grooves (134a, 134b) that extend along a transverse axis that is perpendicular to the longitudinal axis of the pivot base, the first and second grooves (134a, 134b) formed in first and second axial end surfaces, respectively, of one of the pivot base or the first and second pivot arms (134a, 134b) of the pivot body; first and second knife edges (146a, 146b) that extend along the transverse axis and carried by the other of the first and second axial end surfaces of the pivot base or the first and second pivot arms (134a, 134b) of the pivot body, the first and second knife edges (146a, 146b) in line contact with the first and second grooves (134a, 134b), respectively, such that the pivot body can pivot relative to the pivot base about a pivot axis that is coaxial with the transverse axis.
A refrigerator and/or a freezer comprising a cooling tank, which includes an inner tank having a refrigerated space, and an evaporator, wherein the evaporator, together with further electrical functional components (10, 12, 13, 14, 15) is preinstalled at an installation plate, wherein the installation plate is inserted and mounted in the inner tank together with the pre-installed components, characterized in that all electric component arranged on the inner tank are pre-installed on the installation plate, wherein the pre-installed electric components include temperature sensors (12, 13) for the evaporator and refrigerated space, a ventilator, and illumination means, and that the electric connection lines of all electric components pre-installed on the installation plate are combined at a common electrical connector.
A suspension and release unit for an aircraft, the suspension and release unit comprising a sway brace and a suspension hook engageable with a store, the sway brace comprising an adjustable leg and a foot pivotally attached to the adjustable leg, characterised in that the pivoting of the foot is resiliently biased to provide an ejection impulse to the store upon release of the store from the suspension hook.