mhurhangee/ep-ind-claims huggingface dataset:
Motor-vehicle human-machine interface comprising at least two mechanical control buttons (12, 14, 16), each of the buttons being associated with a means for selecting said control button, and functions of various families of functions being assigned to each of the control buttons, characterized in that following the selection of one of said control buttons by means of the associated selecting means, a function of the same family as the function assigned to said selected control button is assigned to the other control button, and the human-machine interface is configured to communicate with a controller allowing the functions assigned to each of said control buttons to be controlled.
A mesoporous elastomer having an ordered and periodic nanoporous structure, the mesoporous elastomer being formed by a crosslinked elastomeric lyotropic liquid crystal, the elastomeric lyotropic liquid crystal formed by: polymerizable amphiphilic molecules, a hydrophilic solvent, a hydrophobic solvent, wherein the hydrophilic solvent comprises hydrophilic monomers and/or the hydrophobic solvent comprises hydrophobic monomers, and wherein the mesoporous elastomer comprises each of the three chemical covalent crosslinking species: homogenous chemical crosslinking of polymerizable amphiphilic molecules with neighboring polymerizable amphiphilic molecules; interfacial and heterogeneous chemical crosslinking of polymerizable amphiphilic molecules with hydrophobic monomers that further form hydrophobic polymer chains and/or interfacial and heterogeneous chemical crosslinking of polymerizable amphiphilic molecules with hydrophilic monomers that further form hydrophilic polymer chains; and homogenous chemical crosslinking of hydrophobic monomers to form polymeric crosslinked hydrophobic polymer chains and/or homogenous chemical crosslinking of hydrophilic monomers to form polymeric crosslinked hydrophilic polymer chains. homogenous chemical crosslinking of polymerizable amphiphilic molecules with neighboring polymerizable amphiphilic molecules; interfacial and heterogeneous chemical crosslinking of polymerizable amphiphilic molecules with hydrophobic monomers that further form hydrophobic polymer chains and/or interfacial and heterogeneous chemical crosslinking of polymerizable amphiphilic molecules with hydrophilic monomers that further form hydrophilic polymer chains; and homogenous chemical crosslinking of hydrophobic monomers to form polymeric crosslinked hydrophobic polymer chains and/or homogenous chemical crosslinking of hydrophilic monomers to form polymeric crosslinked hydrophilic polymer chains.
Vehicle for cutting asparagus while driving, with an under-carriage and at least one cutting device with a cutting tool, which is configured to carry out a cutting movement transversally to the travel direction of the vehicle, so that the cutting tool can be brought into a dam laterally, characterized in that the cutting device is connected to a pendulum rod which is mounted on the under-carriage in a manner to be pivotable about a pendulum axis, so that the cutting device is pivotable in the travel direction of the vehicle, in order to slow or even completely brake the movement of the cutting tool in the travel direction after the cutting tool entered the dam, while the vehicle maintains its travel speed.
A method for exchanging packets (Pk, Pk') between a first node and a second node of a packet-switched communication network, said packets (Pk, Pk') comprising a packet loss field, wherein said packet loss field is settable to either at least one idle value or at least one measurement value, said exchanging comprising: a) by said first node performing a generation step (302, 502, 702) comprising transmitting to said second node first packets having said packet loss field set to said at least one measurement value; b) by said second node, for each one of the first packets having the packet loss field set to said at least one measurement value and received from said first node, transmitting to said first node a respective second packet having said packet loss field set to said at least one measurement value; and c) by said first node, performing a reflection step (304, 504, 704) comprising, for each one of the second packets having the packet loss field set to said at least one measurement value and received from said second node, transmitting to said second node a respective third packet having said packet loss field set to said at least one measurement value, wherein a time T lapsing between start of said generation step (302, 502, 702) and start of said reflection step (304, 504, 704) has a predefined and substantially constant duration T. a) by said first node performing a generation step (302, 502, 702) comprising transmitting to said second node first packets having said packet loss field set to said at least one measurement value; b) by said second node, for each one of the first packets having the packet loss field set to said at least one measurement value and received from said first node, transmitting to said first node a respective second packet having said packet loss field set to said at least one measurement value; and c) by said first node, performing a reflection step (304, 504, 704) comprising, for each one of the second packets having the packet loss field set to said at least one measurement value and received from said second node, transmitting to said second node a respective third packet having said packet loss field set to said at least one measurement value,
A test chamber (10, 34) for conditioning air, in particular a temperature control chamber, a climate chamber or the like, the test chamber comprising a temperature-insulated test space (12, 35), which can be sealed from an environment (33, 45) and serves to hold test material, and a temperature control device for controlling the temperature of the test space, the temperature control device having a heating feature and a cooling feature with a cooling circuit with a refrigerant, a heat exchanger in the test space, a compressor, a condenser and an expansion member, the test chamber being provided with a machine room (13, 36) physically separated from the test space, the cooling circuit with the compressor being at least partially disposed in the machine room, the temperature control device being configured to establish a temperature in a temperature range of -50 °C to +180 °C within the test space, the refrigerant being a hydrocarbon or a refrigerant mixture of hydrocarbons, the test chamber comprising a ventilation system (23, 37) having a detector with at least one gas sensor (22, 42) in or on the test space for detecting refrigerant in the test space, the ventilation system comprising a fan (24, 51) and an exhaust duct (25, 38), the exhaust duct being connected to the test space in such a manner that the fan can transport air from the test space into the exhaust duct, the fan comprising a fan motor and a fan impeller, the fan motor being disposed in an air-tight enclosure (28, 53).
A biological fluid filter assembly (10, 10a) comprising: a flexible housing having first and second walls (12, 14); a filtration medium at least partially positioned between the first and second walls (12, 14) of the housing; a post-filter two-dimensional mesh (38, 38a) at least partially positioned between the filtration medium and the second wall; and a seal joining the first and second walls (12, 14) of the housing, wherein the post-filter two-dimensional mesh (38, 38a) is a semi-permeable layer defining a plurality of openings without woven or overlapping strands or strips of material. a flexible housing having first and second walls (12, 14); a filtration medium at least partially positioned between the first and second walls (12, 14) of the housing; a post-filter two-dimensional mesh (38, 38a) at least partially positioned between the filtration medium and the second wall; and a seal joining the first and second walls (12, 14) of the housing, wherein the post-filter two-dimensional mesh (38, 38a) is a semi-permeable layer defining a plurality of openings without woven or overlapping strands or strips of material.
A turbine engine assembly, comprising: a turbine engine shaft (44, 45) extending along an axis; a first rotor and a second rotor that are connected by the shaft (44, 45), wherein the first rotor includes a first plurality of rotor blades that are connected to a first rotor disk, and the second rotor includes a second plurality of rotor blades that are connected to a second rotor disk; a bearing including an inner race and an outer race, wherein the inner race is mounted on the shaft (44, 45) and is separated from the outer race by a gap; and a rotor seal element mounted on the shaft (44, 45), said rotor seal element being configured as a face seal landing; characterised by a shield substantially blocking an axial line of sight between the gap and the rotor seal element. a turbine engine shaft (44, 45) extending along an axis; a first rotor and a second rotor that are connected by the shaft (44, 45), wherein the first rotor includes a first plurality of rotor blades that are connected to a first rotor disk, and the second rotor includes a second plurality of rotor blades that are connected to a second rotor disk; a bearing including an inner race and an outer race, wherein the inner race is mounted on the shaft (44, 45) and is separated from the outer race by a gap; and a rotor seal element mounted on the shaft (44, 45), said rotor seal element being configured as a face seal landing; characterised by a shield substantially blocking an axial line of sight between the gap and the rotor seal element.
Method for manufacturing a germanium slow light waveguide (26; 202) on a silicon plate extending mainly in a plane referred to as the "plane of the plate", this slow light waveguide including a horizontal cross section, parallel to the plane of the plate, that exhibits the same pattern repeated at regular intervals along an optical axis, these patterns being positioned symmetrically on either side of the optical axis in such a way that this arrangement of patterns slows the propagation of the optical signal along the optical axis inside the slow light waveguide (26; 202), this pattern including two lateral teeth each positioned on a respective side of a germanium central strip or a silicon cylindrical pad that passes from one side of the germanium central strip to the other, characterized in that the method includes: - producing, in the silicon plate, a cavity the cross section of which, parallel to the plane of the plate, is identical to the horizontal cross section of the slow light waveguide (26; 202) and the bottom of which is located inside the silicon plate; then - carrying out an operation of vapour phase epitaxial growth of germanium on the bottom of the cavity until this cavity is completely filled with germanium, the germanium thus being deposited on the silicon plate and, simultaneously, structured so as to form the patterns of the slow light waveguide; and - before implementing said epitaxial growth operation, a protective layer is deposited on an upper face of the silicon plate which surrounds the cavity, this protective layer being made in a material on which the germanium is not able to grow during said epitaxial growth operation, or, after implementing said epitaxial growth operation, the germanium that has grown on said upper face of the silicon plate which surrounds the cavity is removed. - producing, in the silicon plate, a cavity the cross section of which, parallel to the plane of the plate, is identical to the horizontal cross section of the slow light waveguide (26; 202) and the bottom of which is located inside the silicon plate; then - carrying out an operation of vapour phase epitaxial growth of germanium on the bottom of the cavity until this cavity is completely filled with germanium, the germanium thus being deposited on the silicon plate and, simultaneously, structured so as to form the patterns of the slow light waveguide; and - before implementing said epitaxial growth operation, a protective layer is deposited on an upper face of the silicon plate which surrounds the cavity, this protective layer being made in a material on which the germanium is not able to grow during said epitaxial growth operation, or, after implementing said epitaxial growth operation, the germanium that has grown on said upper face of the silicon plate which surrounds the cavity is removed.
Wall for reducing fine dust pollution, with at least two posts (2, 92, 102, 112), between which several functional elements (3, 33, 43, 73, 83, 93, 103) placed on top of one another are held for reducing the fine dust pollution, wherein the functional elements (3, 33, 43, 73, 83, 93, 103) have at least one functional side used to reduce the fine dust pollution, wherein the functional elements (3, 33, 43, 73, 83, 93, 103) have a dimensionally stable base body (5, 35, 45) represented by an upper support profile, a lower support profile and at least one connecting element joining the upper support profile and the lower support profile, wherein a plant-based functional layer is fixed to the base body (5, 35, 45) on the functional side (3, 33, 43, 73, 83, 93, 103), wherein the wall (1, 41, 91, 101, 111) has a collecting device for collecting rain water, wherein an irrigation device feeding the collected rain water to the functional layer is provided, wherein the wall (1, 91, 101, 111) is a noise barrier, wherein a cavity is formed on the side of the functional element (3, 33, 43, 73, 83, 93, 103) which is remote from the functional layer, wherein a substrate layer on which the functional layer is located is held in the base body (5, 35, 45), characterised in that the substrate layer forms the support structure for the functional layer, in that the substrate layer is divided into several sections, in that the individual sections of the substrate layer are separated from one another by barrier layers, and in that the barrier layers extend horizontally between the posts (2, 92, 102, 112).
Centrifugal air filter for a vehicle system, having a multiplicity of individual separators, which set an air flow passing through them into a turbulent motion, so that particles contained in the air flow are flung into a separation region surrounding the individual separators, on account of the centrifugal forces thus generated, and collect by gravity in a filter housing portion that lies below a predefined installation or operating position, characterized in that a suction nozzle connected via a tubular suction line to a connecting nozzle emerging from a filter housing opens into the filter housing portion.
A feeding device for poultry, such as cocks, comprising an elongate feed conveying element having at least a bottom wall, a feed trough provided thereunder and parallel thereto, which is provided with a bottom, upright side walls and an at least partially open upper side, and moving means for moving the feed conveying element and the feed trough with respect to each other between a closed position, in which the feed conveying element closes the open upper side of the feed trough at least substantially to poultry, and a feeding position, in which the feed conveying element is spaced from the feed trough by a distance such that the inner space of the feed trough is accessible to the poultry, wherein the feed conveying element is provided with at least one passage for feed in its bottom wall, seen in its longitudinal direction, and wherein the feeding device further comprises feed conveying means for conveying feed through the feed conveying element to said at least one passage, and adjusting means for adjusting the spacing between the feed conveying element and the bottom of the feed trough in the closed position, wherein the adjusting means comprise a number of spacers each having a supporting surface for supporting the feed conveying element, wherein the spacing between said supporting surface and the bottom of the feed trough is adjustable for adjusting the spacing between the feed conveying element and the bottom of the feed trough at the location of each spacer.
A fastening arrangement (1; 60) with damping effect consisting of two identically constructed fastening units (3; 63; 103) with a central first thru-opening (5; 105) each, characterized in that each fastening unit (3; 63; 103) includes: a. an assembly element (10; 110) as well as a damping element (30; 130), and b. the assembly element (10; 110) is formed disk-like with a central second thru-opening and an identical latching structure extends from a first side (14; 114) of each assembly element (10; 110), c. the damping element (30; 130) is formed disk-like with a central third thru-opening and is arranged at least partly in the central second thru-opening of the assembly element (10; 110), so that d. the two fastening units (3; 63; 103) are fastenable to each other via the first sides (14; 114) which are facing each other, with the identical latching structure of the respective assembly elements (10; 110) with a first component being interposed. a. an assembly element (10; 110) as well as a damping element (30; 130), and b. the assembly element (10; 110) is formed disk-like with a central second thru-opening and an identical latching structure extends from a first side (14; 114) of each assembly element (10; 110), c. the damping element (30; 130) is formed disk-like with a central third thru-opening and is arranged at least partly in the central second thru-opening of the assembly element (10; 110), so that d. the two fastening units (3; 63; 103) are fastenable to each other via the first sides (14; 114) which are facing each other, with the identical latching structure of the respective assembly elements (10; 110) with a first component being interposed.
An anti-sclerostin antibody for use in treating osteogenesis imperfecta in a human patient comprising administering to the human patient a therapeutically effective amount of the anti-sclerostin antibody, wherein the anti-sclerostin antibody comprises: (a) a heavy chain variable region CDR1 comprising an amino acid sequence set forth in SEQ ID NO:4; (b) a heavy chain variable region CDR2 comprising an amino acid sequence set forth in SEQ ID NO: 15; (c) a heavy chain variable region CDR3 comprising an amino acid sequence set forth in SEQ ID NO:26; (d) a light chain variable region CDR1 comprising an amino acid sequence set forth in SEQ ID NO:37; (e) a light chain variable region CDR2 comprising an amino acid sequence set forth in SEQ ID NO:48; and (f) a light chain variable region CDR3 comprising an amino acid sequence set forth in SEQ ID NO:59. (a) a heavy chain variable region CDR1 comprising an amino acid sequence set forth in SEQ ID NO:4; (b) a heavy chain variable region CDR2 comprising an amino acid sequence set forth in SEQ ID NO: 15; (c) a heavy chain variable region CDR3 comprising an amino acid sequence set forth in SEQ ID NO:26; (d) a light chain variable region CDR1 comprising an amino acid sequence set forth in SEQ ID NO:37; (e) a light chain variable region CDR2 comprising an amino acid sequence set forth in SEQ ID NO:48; and (f) a light chain variable region CDR3 comprising an amino acid sequence set forth in SEQ ID NO:59.
A vector comprising a first expression control sequence operably linked to a first nucleic acid sequence, the first nucleic acid sequence encoding a shRNA to knockdown HPRT, wherein the shRNA has at least 95% sequence identity to that of SEQ ID NO: 30; and a second expression control sequence operably linked to a second nucleic acid sequence, the second nucleic acid sequence encoding a gamma-globin gene.
A method for capturing integrated circuit,IC, die temperature data, the method comprising: responsive to an application of power to the IC, self-initializing the IC by: asserting a reset signal for a reset period; in response to an expiration of the reset period, deasserting the reset signal; and responsive to deasserting the reset signal, automatically: obtaining first temperature data from at least one thermal sensing device associated with a die of the IC; and storing the first temperature data in a storage component of the IC. responsive to an application of power to the IC, self-initializing the IC by: asserting a reset signal for a reset period; in response to an expiration of the reset period, deasserting the reset signal; and responsive to deasserting the reset signal, automatically: obtaining first temperature data from at least one thermal sensing device associated with a die of the IC; and storing the first temperature data in a storage component of the IC. obtaining first temperature data from at least one thermal sensing device associated with a die of the IC; and storing the first temperature data in a storage component of the IC.
An engine noise control system comprising: a broadband noise and vibration sensor (109,606) configured to directly pick up engine noise from an engine of a vehicle and to generate a sense signal representative of the engine noise; an active noise control filter configured to generate a filtered sense signal from the sense signal; a loudspeaker configured to convert the filtered sense signal from the active noise control filter into anti-noise and to radiate the anti-noise to a listening position in an interior of the vehicle; wherein the filtered sense signal is configured so that the anti-noise reduces the engine noise at the listening position; characterized in that the engine noise control system further comprises an engine exhaust mount, and in that the broadband noise and vibration sensor (109,606) is fastened to the engine exhaust mount. a broadband noise and vibration sensor (109,606) configured to directly pick up engine noise from an engine of a vehicle and to generate a sense signal representative of the engine noise; an active noise control filter configured to generate a filtered sense signal from the sense signal; a loudspeaker configured to convert the filtered sense signal from the active noise control filter into anti-noise and to radiate the anti-noise to a listening position in an interior of the vehicle; wherein the filtered sense signal is configured so that the anti-noise reduces the engine noise at the listening position; characterized in that the engine noise control system further comprises an engine exhaust mount, and in that the broadband noise and vibration sensor (109,606) is fastened to the engine exhaust mount.
A myocardial sheet comprising cells derived from human induced pluripotent stem (iPS) cells, wherein a composition ratio of said cells derived from human iPS cells is 30 to 70% for cardiomyocytes, 0.1 to 20% for endothelial cells, and 1 to 40% for mural cells.
A method for manufacturing a multi-ply value-document substrate having at least one paper strip or paper patch embedded between two films (2, 3, 17) and furnished with at least one watermark, comprising a) the supplying of a first film web and a second film web; b) the embedding of individual paper strips or paper patches, which are furnished with respectively at least one watermark, between the first film web and the second film web; c) the fitting of the composite obtained in step b). a) the supplying of a first film web and a second film web; b) the embedding of individual paper strips or paper patches, which are furnished with respectively at least one watermark, between the first film web and the second film web; c) the fitting of the composite obtained in step b).