mhurhangee/ep-ind-claims huggingface dataset:
A two-wheeled vehicle, comprising a frame assembly including a front frame portion including a head portion, a plurality of generally vertically-extending frame tubes, and a plurality of generally longitudinally-extending frame tubes, a mid-frame portion removably coupled to the front frame portion, and a rear frame portion removably coupled to the mid-frame portion; a front ground-engaging member for supporting the frame assembly; a rear ground-engaging member for supporting the frame assembly; characterized in that the two-wheeled vehicle further comprises a rear suspension assembly operably coupled to the rear ground-engaging member, the rear suspension assembly including a first swing arm coupled to the mid-frame portion, a second swing arm coupled to the mid-frame portion, and a pivot axle extending between the first and second swing arms, wherein rotation of the pivot axle is configured to adjust the position of the mid-frame portion relative to the first and second swing arms and wherein the mid-frame portion is cast and configured to move inwardly and outwardly in response to the rotation of the pivot axle.
A method of manufacturing a single crystal 3C-SiC substrate where a single crystal 3C-SiC layer is formed on a base substrate by epitaxial growth, comprising: a first growing stage of forming the single crystal 3C-SiC layer having a state that there are pits scattered in a flat surface; and a second growing stage of further epitaxially growing the single crystal 3C-SiC layer obtained in the first growing stage so as to fill the pits, wherein a main component of material gas when the single crystal 3C-SiC layer is formed on the base substrate by epitaxial growth is monomethylsilane, characterized in that the epitaxial growth in the first growing stage is performed within a transport limited range, and the epitaxial growth in the second growing stage is performed within a desorption limited range, in the first growing stage, a substrate temperature is between 970 and 1120°C, a flow rate of monomethylsilane to be contained in the material gas is between 1.0 and 30.0 standard cc/min, and a filming pressure exceeds 0,0011999016 Pa (9x10 -6 Torr) and is 53,32896 Pa (4x10 -1 Torr) or below, and in the second growing stage, the flow rate of monomethylsilane to be contained in the material gas is 6.0 standard cc/min or lower, the substrate temperature is between 1100°C and below a melting temperature of the base substrate, and the filming pressure is between 1,333224×10 -5 Pa (1x10 -7 Torr) and 0,007999344 Pa (6x10 -5 Torr). a first growing stage of forming the single crystal 3C-SiC layer having a state that there are pits scattered in a flat surface; and a second growing stage of further epitaxially growing the single crystal 3C-SiC layer obtained in the first growing stage so as to fill the pits, wherein a main component of material gas when the single crystal 3C-SiC layer is formed on the base substrate by epitaxial growth is monomethylsilane, characterized in that the epitaxial growth in the first growing stage is performed within a transport limited range, and the epitaxial growth in the second growing stage is performed within a desorption limited range, in the first growing stage, a substrate temperature is between 970 and 1120°C, a flow rate of monomethylsilane to be contained in the material gas is between 1.0 and 30.0 standard cc/min, and a filming pressure exceeds 0,0011999016 Pa (9x10 -6 Torr) and is 53,32896 Pa (4x10 -1 Torr) or below, and in the second growing stage, the flow rate of monomethylsilane to be contained in the material gas is 6.0 standard cc/min or lower, the substrate temperature is between 1100°C and below a melting temperature of the base substrate, and the filming pressure is between 1,333224×10 -5 Pa (1x10 -7 Torr) and 0,007999344 Pa (6x10 -5 Torr).
Vapor extraction device comprising a housing having an air intake opening and an air exhaust opening, and a blower-motor unit disposed in the housing, wherein between the air intake opening and the air exhaust opening an odor filter element is fluidically present, which, with respect to its longitudinal axis, can be flowed through in radial direction, wherein the odor filter element features a hollow-cylindrical filter body having an inner hollow space, wherein the filter body features at least one adsorbent winding comprising a plurality of spirally disposed winding layers having at least one adsorbent, wherein the winding layers of the adsorbent winding comprise an air-permeable carrier layer on which the at least one adsorbent is disposed in particulate and/or granular form and immobilized with respect to the carrier layer.
A clamping assembly for coupling adjacent turbine components (54(a), 54(b), 54(c)) of a turbomachine, comprising: a shaft; a first plurality of clamps; and a second plurality of clamps, each of the first plurality of clamps and the second plurality of clamps comprising: a first wall (118, 126); a second wall (120, 128) extending outwardly from the first wall (118, 126) in a first direction; and a third wall (122, 130) extending outwardly from the first wall (118, 126) in a second direction; wherein each of the first walls of each adjacent pair of the first plurality of clamps is longitudinally spaced apart by one of the second plurality of clamps; wherein the first walls (118, 126) and the second walls (120, 128) of the first plurality of clamps and the second plurality of clamps collectively define a first slot that receives the shaft the clamping assembly being characterised in that: the first walls (118, 126) and the third walls (122, 130) of the first plurality of clamps and the second plurality of clamps collectively define a second slot for receiving the adjacent turbine components (54(a), 54(b), 54(c)); wherein the shaft thermally expands at the same rate or at a greater rate than the first and the second pluralities of clamps (104,106); and wherein the second walls of the first plurality of clamps are transversely spaced apart from the second walls of the second plurality of clamps. a shaft; a first plurality of clamps; and a second plurality of clamps, each of the first plurality of clamps and the second plurality of clamps comprising: a first wall (118, 126); a second wall (120, 128) extending outwardly from the first wall (118, 126) in a first direction; and a third wall (122, 130) extending outwardly from the first wall (118, 126) in a second direction; a first wall (118, 126); a second wall (120, 128) extending outwardly from the first wall (118, 126) in a first direction; and a third wall (122, 130) extending outwardly from the first wall (118, 126) in a second direction; wherein each of the first walls of each adjacent pair of the first plurality of clamps is longitudinally spaced apart by one of the second plurality of clamps; wherein the first walls (118, 126) and the second walls (120, 128) of the first plurality of clamps and the second plurality of clamps collectively define a first slot that receives the shaft the clamping assembly being characterised in that: the first walls (118, 126) and the third walls (122, 130) of the first plurality of clamps and the second plurality of clamps collectively define a second slot for receiving the adjacent turbine components (54(a), 54(b), 54(c)); wherein the shaft thermally expands at the same rate or at a greater rate than the first and the second pluralities of clamps (104,106); and wherein the second walls of the first plurality of clamps are transversely spaced apart from the second walls of the second plurality of clamps.
Illuminating device for a motor vehicle, having - a first headlamp for providing a first light distribution having a first opening range, and - a second headlamp for providing a second light distribution having a second opening range, wherein - the first and the second headlamp (12, 14) are designed in such a way that the first opening range and the second opening range completely overlap in a predetermined area, and wherein - the first and the second headlamp (12, 14) each have at least one light source for emitting radiation and a deflecting device for deflecting the radiation emitted by the at least one light source, characterised in that - in order to provide the first and the second light distribution (36, 38), the deflecting device of the first headlamp and the deflecting device of the second headlamp deflect the radiation emitted by the respective at least one light source along a predetermined path in the form of lines, in the form of columns and/or in the form of a grid, and - the deflecting device of the first headlamp deflects the radiation along the predetermined path with a time delay with respect to the radiation deflected by the deflecting device of the second headlamp. - a first headlamp for providing a first light distribution having a first opening range, and - a second headlamp for providing a second light distribution having a second opening range, wherein - the first and the second headlamp (12, 14) are designed in such a way that the first opening range and the second opening range completely overlap in a predetermined area, and wherein - the first and the second headlamp (12, 14) each have at least one light source for emitting radiation and a deflecting device for deflecting the radiation emitted by the at least one light source, - in order to provide the first and the second light distribution (36, 38), the deflecting device of the first headlamp and the deflecting device of the second headlamp deflect the radiation emitted by the respective at least one light source along a predetermined path in the form of lines, in the form of columns and/or in the form of a grid, and - the deflecting device of the first headlamp deflects the radiation along the predetermined path with a time delay with respect to the radiation deflected by the deflecting device of the second headlamp.
A device (100, 200), comprising: a direct conversion compound semiconductor layer configured to convert x-ray or gamma ray photons into an electric current; an integrated circuit, IC, layer situated next to the direct conversion compound semiconductor layer with respect to a z-axis and configured to receive the electric current and process the electric current; and a substrate layer situated next to the IC layer with respect to the z-axis and configured to conduct heat emitted from the IC layer; wherein the substrate layer comprises recesses at corners of a cross section of the substrate; and said device being characterized in that the substrate layer further comprises sliding electrical contacts between the corners, the sliding electrical contacts being connected to the IC layer through the substrate layer to receive the processed electric current; and in that the device includes an assembly frame, wherein the assembly frame comprises additional recesses, each additional recess being configured to receive a lowest part of the substrate layer being at a same level as the additional recesses, and an upper part of the substrate, which is above the additional recesses, rests on a surface of the assembly frame. a direct conversion compound semiconductor layer configured to convert x-ray or gamma ray photons into an electric current; an integrated circuit, IC, layer situated next to the direct conversion compound semiconductor layer with respect to a z-axis and configured to receive the electric current and process the electric current; and a substrate layer situated next to the IC layer with respect to the z-axis and configured to conduct heat emitted from the IC layer; wherein the substrate layer comprises recesses at corners of a cross section of the substrate; and said device being characterized in that the substrate layer further comprises sliding electrical contacts between the corners, the sliding electrical contacts being connected to the IC layer through the substrate layer to receive the processed electric current; and in that the device includes an assembly frame, wherein the assembly frame comprises additional recesses, each additional recess being configured to receive a lowest part of the substrate layer being at a same level as the additional recesses, and an upper part of the substrate, which is above the additional recesses, rests on a surface of the assembly frame.
A piece threading device comprising: - a supporting assembly having an inner rotatively driven body which, on a side thereof facing a workpiece to be threaded, comprises a plurality of threading tools, and - an electric rotor included in said rotatively driven body for directly rotatively driving the rotatively driven body with said threading tools, wherein an electric stator built-in in said supporting assembly is operatively coupled to said electric rotor, said electric rotor and said electric stator forming together an electric motor (8, 9), characterized in that the piece threading device further comprises: - a device interface to drive and control the electric motor (8, 9), the device interface being configured to operatively couple the piece threading device to a Numerical Control Device of a machine tool, wherein the supporting assembly is configured to be supported by a slide of the machine tool, and the device interface houses both a plurality of power supply cables to power supply the electric motor (8, 9) and a plurality of pressure ducts for pressurizing the piece threading device to prevent machining chips from depositing in the piece threading device. - a supporting assembly having an inner rotatively driven body which, on a side thereof facing a workpiece to be threaded, comprises a plurality of threading tools, and - an electric rotor included in said rotatively driven body for directly rotatively driving the rotatively driven body with said threading tools, wherein an electric stator built-in in said supporting assembly is operatively coupled to said electric rotor, said electric rotor and said electric stator forming together an electric motor (8, 9), - a device interface to drive and control the electric motor (8, 9), the device interface being configured to operatively couple the piece threading device to a Numerical Control Device of a machine tool, wherein
A beverage that comprises saccharides and which satisfies all of the following conditions (i) to (iii): (i) the total weights of mono-, di- and trisaccharides contained in the beverage account for 75% or more of the total weight of all saccharides contained in the beverage; (ii) the ratio of the total weight of the disaccharides to that of the trisaccharides is from 5:1 to 9:10; and (iii) the osmotic pressure is from 30 to 130 mOsm/KG. (i) the total weights of mono-, di- and trisaccharides contained in the beverage account for 75% or more of the total weight of all saccharides contained in the beverage; (ii) the ratio of the total weight of the disaccharides to that of the trisaccharides is from 5:1 to 9:10; and (iii) the osmotic pressure is from 30 to 130 mOsm/KG.
A process for the preparation of ethylene glycol and 1,2-propylene glycol from starting material comprising one or more saccharides, by contacting said starting material with hydrogen in a reactor in the presence of a solvent and a catalyst system with catalytic hydrogenation abilities, wherein the process comprises the steps of: i) introducing a first portion of the starting material into the reactor such that the initial concentration of the saccharide in the solvent in the reactor is no more than 2 wt%; ii) allowing at least 90wt% of the saccharide in the first portion of the starting material to react; iii) subsequently adding further portions of starting material to the reactor over time; and iv) removing reaction product from the reactor. i) introducing a first portion of the starting material into the reactor such that the initial concentration of the saccharide in the solvent in the reactor is no more than 2 wt%; ii) allowing at least 90wt% of the saccharide in the first portion of the starting material to react; iii) subsequently adding further portions of starting material to the reactor over time; and iv) removing reaction product from the reactor.
A polypeptide dimer comprising two gpl30-Fc monomers having at least 90% sequence identity to SEQ ID NO: 1, wherein the monomers comprise the amino acids at positions 585-595 of SEQ ID NO:1, an Fc domain hinge region comprising the amino acids at positions 609-612 of SEQ ID NO:1, and the monomers do not comprise a linker between the gp130 portion and the Fc domain, preferably wherein the monomers are linked by one or more disulfide bridges, wherein the polypeptide dimer comprises no greater than 6 % of galactose-alpha-1,3-galactose per mole polypeptide, preferably no greater than 3 mol%, more preferably no greater than 1 mol%, even more preferably no greater than 0.5 mol% of galactose-alpha-1,3-galactose, wherein the polypeptide dimer is obtainable by expressing a polypeptide having at least 90% sequence identity to SEQ ID NO: 1 in Chinese hamster ovary cells, selecting a cell line producing said polypeptide dimer, culturing the cell line in culture media, and collecting said polypeptide dimers from said cells and/or cell culture media, preferably wherein said dimers are purified and/or concentrated.
A synchronous generator of a gearless wind turbine, comprising a rotor and a stator, wherein the stator has a stator ring having teeth and slots arranged therebetween for receiving a stator winding, and, in the circumferential direction, the stator ring is divided into stator segments, each having an equal number of slots, and, within a segment, the slots have a substantially equal spacing with respect to one another in the circumferential direction, wherein, in at least one connecting region (38, 40) of two segments, the spacing of at least two adjacent slots, which are each assigned to one of two different segments, differs from the spacing of the slots within a segment, characterized in that the stator winding is formed with form coils, wherein the form coils are produced from different materials, wherein, in adjacent slots, the spacing of which is less than the spacing of the slots within a segment, a leg of a form coil with a first resistivity is used and, in the majority of the remaining slots, a leg of a form coil with a relatively higher resistivity is used in each case.
Secondary transformer unit for installation in a vehicle with an electric drive, comprising - at least one secondary core having a front side and a rear side, which delimit the secondary core in a first direction (x), and an upper side and a lower side, which delimit the secondary core in a second direction (z); - at least one secondary coil which is arranged on the secondary core; characterised in that - the secondary transformer unit further comprises at least one outer skin which envelopes the entire secondary core such that the outer skin also completely covers the front side, the rear side, the upper side and the lower side of the secondary core, and contains the reinforcing fibres in order to be designed to hold back sharpedged, hard fragments inside the outer skin when the secondary core is broken, - wherein the outer skin envelopes only the secondary core. - at least one secondary core having a front side and a rear side, which delimit the secondary core in a first direction (x), and an upper side and a lower side, which delimit the secondary core in a second direction (z); - at least one secondary coil which is arranged on the secondary core; characterised in that - the secondary transformer unit further comprises at least one outer skin which envelopes the entire secondary core such that the outer skin also completely covers the front side, the rear side, the upper side and the lower side of the secondary core, - wherein the outer skin envelopes only the secondary core.
Method for producing a blank for artificial teeth of plastics, which is inserted under pressure, comprising a plurality of different coloured layers, wherein the blank consists of a thermoplastic, and is inserted in a multi-component injection moulding method in a first cavity in an injection mould a first plastic layer with a first pigmentation, and is inserted in at least a second cavity in an injection mould at least another plastic layer of the same plastic with a different pigmentation compared to the first plastic layer, characterized in that the blank is essentially formed disc-shaped, wherein the first plastic layer is at least partly formed with a profile and/or a structure on the side, where the second plastic layer is applied, and has a homogeneous surface on the opposite side, wherein the profiles and/or structure of the first and/or second plastic layer (12, 14) are formed by the surface with elevations and/or indentations, which are pyramidal, cylindrical, or square.
A method for heating a preform, the method comprising the steps of: providing a plurality of preforms suitable for blow molding; heating each preform; and measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed; and optimizing the heating step based on a comparison of the measuring step to the inspecting step to ensure each preform has been heated to an acceptable temperature to ensure the heating step for subsequent preforms is optimized for blow molding to militate against blowouts thereof. providing a plurality of preforms suitable for blow molding; heating each preform; and measuring the temperature of at least a portion of each preform along its longitudinal axis and around its circumference; the method characterized by the following steps: inspecting each preform to identify at least a material from which the preform is formed; and optimizing the heating step based on a comparison of the measuring step to the inspecting step to ensure each preform has been heated to an acceptable temperature to ensure the heating step for subsequent preforms is optimized for blow molding to militate against blowouts thereof.