mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a chain component coated with a hard material layer chain component (11, 12, 13, 14), such as an inner and/or outer plate, sleeve and/or pin, which comprises the following process steps comprising: • preparation of a release agent • adding the prepared release agent to a powder mixture • providing the powder mixture, • providing the substrate of metal, • heating the powder and the substrate in a heating device, • depositing a layer on the substrate, whereby the layer has a higher hardness than the substrate • cooling the substrate, wherein the proportion of the release agent in the powder mixture is less than or equal to 25% by weight, and wherein the process step of preparing a release agent leads to an increase in the average particle size of the release agent, wherein the change in the particle size distribution of the release agent is effected by washing, sieving, sedimentation, filtration, sifting, air sifting and/or centrifuging, wherein the release agent contains a proportion of particles smaller than 40 μm of less than 25%, preferably less than 15% and particularly preferably less than 10%, wherein the particle size distribution of the release agent is determined by sieve analysis wherein the release agent comprises Al 2 O 3, kaolin (aluminosilicate), mullite (alumina and silica), zirconia, nitride and/or silicide ceramics and/or all other ceramic inert substances, and wherein the process temperature is at times higher than 450°C, preferably higher than 500°C and particularly preferably higher than 550°C. • preparation of a release agent • adding the prepared release agent to a powder mixture • providing the powder mixture, • providing the substrate of metal, • heating the powder and the substrate in a heating device, • depositing a layer on the substrate, whereby the layer has a higher hardness than the substrate • cooling the substrate, wherein the proportion of the release agent in the powder mixture is less than or equal to 25% by weight, and wherein the process step of preparing a release agent leads to an increase in the average particle size of the release agent, wherein the change in the particle size distribution of the release agent is effected by washing, sieving, sedimentation, filtration, sifting, air sifting and/or centrifuging, wherein the release agent contains a proportion of particles smaller than 40 μm of less than 25%, preferably less than 15% and particularly preferably less than 10%, wherein the particle size distribution of the release agent is determined by sieve analysis wherein the release agent comprises Al 2 O 3, kaolin (aluminosilicate), mullite (alumina and silica), zirconia, nitride and/or silicide ceramics and/or all other ceramic inert substances, and wherein the process temperature is at times higher than 450°C, preferably higher than 500°C and particularly preferably higher than 550°C.
An engine control apparatus for an internal combustion engine provided with a valve timing varying mechanism to vary a valve timing of an intake valve of the internal combustion engine, the engine control apparatus comprising: a sensing means (11, 12, 10, B13) to detect a value of a sensed valve timing (VTCNOW) of the intake valve; an ignition timing controlling means (10, B11, B12, B16, B17) to control an ignition timing of the internal combustion engine in accordance with the sensed valve timing (VTCNOW); a response calculating means (10, B15) to calculate a value of a first response valve timing obtained by conversion from a previous value of the sensed valve timing with a first response speed at a time of conversion to one of an advance side and a retard side of the valve timing; and a sensed valve timing limiting means (10, B15, S20, S21) to limit the sensed valve timing (VTCNOW) to or below a first response valve timing of the advance side calculated by conversion from the previous value of the sensed valve timing with a first response speed of the advanced side at the time of conversion to the advance side (S20, S21); characterized in that the sensed valve timing limiting means (10, B15, S20, S21) is configured to limit the sensed valve timing (VTCNOW) to or below a second response valve timing of the retard side calculated by conversion from the previous value of the sensed valve timing with a second response speed of the retard side slower than a first response speed of the retard side when a sensing abnormality of the valve timing sensed by the sensing means is detected, and the conversion is to the retard side. a sensing means (11, 12, 10, B13) to detect a value of a sensed valve timing (VTCNOW) of the intake valve; an ignition timing controlling means (10, B11, B12, B16, B17) to control an ignition timing of the internal combustion engine in accordance with the sensed valve timing (VTCNOW); a response calculating means (10, B15) to calculate a value of a first response valve timing obtained by conversion from a previous value of the sensed valve timing with a first response speed at a time of conversion to one of an advance side and a retard side of the valve timing; and a sensed valve timing limiting means (10, B15, S20, S21) to limit the sensed valve timing (VTCNOW) to or below a first response valve timing of the advance side calculated by conversion from the previous value of the sensed valve timing with a first response speed of the advanced side at the time of conversion to the advance side (S20, S21); characterized in that the sensed valve timing limiting means (10, B15, S20, S21) is configured to limit the sensed valve timing (VTCNOW) to or below a second response valve timing of the retard side calculated by conversion from the previous value of the sensed valve timing with a second response speed of the retard side slower than a first response speed of the retard side when a sensing abnormality of the valve timing sensed by the sensing means is detected, and the conversion is to the retard side.
A nanostructure, comprising: (a) a plurality of first assemblies, each first assembly comprising a plurality of identical first polypeptides; (b) a plurality of second assemblies, each second assembly comprising a plurality of identical second polypeptides, wherein the second polypeptides differ from the first polypeptides; wherein the plurality of first assemblies non-covalently interact with the plurality of second assemblies to form a nanostructure; wherein the nanostructure displays multiple copies of one or more paramyxovirus and/or pneumovirus prefusion conformation F proteins, or antigenic fragments thereof, on an exterior of the nanostructure; wherein the first polypeptides comprise polypeptides having at least 90% identity to SEQ ID NO: 7 and the second polypeptides comprise polypeptides having at least 90% identity to SEQ ID NO: 34 (I53-50A and I53-50B.4PosT1), respectively; wherein the first polypeptides comprise amino acid residues 25, 29, 33, 54 and 57 of SEQ ID NO:7, and wherein the second polypeptides comprise amino acid residues 24, 28, 36, 124, 125, 127, 128, 129, 131, 132, 133, 135 and 139 of SEQ ID NO: 34; wherein the one or more paramyxovirus and/or pneumovirus F proteins, or antigenic fragments thereof, are fused to the N-terminus of the first polypeptides; wherein each first assembly comprises a homotrimer of the first polypeptide; and wherein each second assembly comprises a homopentamer of the second polypeptide. (a) a plurality of first assemblies, each first assembly comprising a plurality of identical first polypeptides; (b) a plurality of second assemblies, each second assembly comprising a plurality of identical second polypeptides, wherein the second polypeptides differ from the first polypeptides; wherein the plurality of first assemblies non-covalently interact with the plurality of second assemblies to form a nanostructure; wherein the nanostructure displays multiple copies of one or more paramyxovirus and/or pneumovirus prefusion conformation F proteins, or antigenic fragments thereof, on an exterior of the nanostructure; wherein the first polypeptides comprise polypeptides having at least 90% identity to SEQ ID NO: 7 and the second polypeptides comprise polypeptides having at least 90% identity to SEQ ID NO: 34 (I53-50A and I53-50B.4PosT1), respectively; wherein the first polypeptides comprise amino acid residues 25, 29, 33, 54 and 57 of SEQ ID NO:7, and wherein the second polypeptides comprise amino acid residues 24, 28, 36, 124, 125, 127, 128, 129, 131, 132, 133, 135 and 139 of SEQ ID NO: 34; wherein the one or more paramyxovirus and/or pneumovirus F proteins, or antigenic fragments thereof, are fused to the N-terminus of the first polypeptides; wherein each first assembly comprises a homotrimer of the first polypeptide; and wherein each second assembly comprises a homopentamer of the second polypeptide.
An isolated human tissue stem cell in which a gene of interest is introduced into a gene locus of a stem cell marker gene, wherein: - the stem cell marker gene is a Leucine-Rich Repeat-Containing G Protein Coupled Receptor 5 gene, and - the gene of interest is introduced into exon 18 of an Lgr5 gene locus. - the stem cell marker gene is a Leucine-Rich Repeat-Containing G Protein Coupled Receptor 5 gene, and - the gene of interest is introduced into exon 18 of an Lgr5 gene locus.
A fastening arrangement for fixing a guide rail of a pull-out guide to a side grid, in particular for a baking oven having a side grid and a guide rail, wherein the side grid comprises at least one horizontal rod having end sections that are bent at an angle and that are each fixed to a post (2, 3), and the guide rail is fixed to the rod, and fastening means for fixing the guide rail to the rod are formed integrally with the guide rail, wherein the guide rail has at least one slot (12, 13) on its underside, into which a bent end section of the rod is inserted, characterized in that the guide rail has a rear slot into which a rear bent end section is inserted and a front slot into which a front bent end section is inserted, and the slots (12, 13) are aligned at an angle to one another.
A shaped savoury concentrate article having a water content of not more than 10 wt.%, said article comprising: • 50-95 wt.% particulate seasoning components; • 2-30 wt.% oil, said oil having a solid fat content at 20°C (N 20) of less than 20%; • 2-20 wt.% of prolamin particles having a prolamin content of at least 20 wt.% and a sphere equivalent mean diameter of less than 20 μm. • 50-95 wt.% particulate seasoning components; • 2-30 wt.% oil, said oil having a solid fat content at 20°C (N 20) of less than 20%; • 2-20 wt.% of prolamin particles having a prolamin content of at least 20 wt.% and a sphere equivalent mean diameter of less than 20 μm.
Device for sharpening one or more cutting edges of a dental curette having a base support, on which there is articulated a frame, and at least one sharpening guide (4, 40); said frame supporting a grinding wheel rotationally driven by a motor and a sharpening guide support intended to receive the sharpening guide(s) (4, 40), characterised in that the frame supports a magnifying lens on its free end; and in that the grinding wheel is located between the sharpening guide support and the magnifying lens; in that the guide (4, 40) comprises at least one indicator in the form of a line marked on said guide (4, 40), the angle of which with the horizontal being between 10° and 50° but preferably equal to 10°, 20° or 30° and corresponding to the type of dental curette to be sharpened; in that the sharpening guide(s) (4, 40) can move with respect to said support, and in that said support and/or said guide (4, 40) comprise(s) indexing and positioning means (21, 41, 48) determining indexing positions of the guide (4, 40) on the support, each indexing position corresponding to a different indicator; and in that the device further comprises a stabilising support mounted on the frame between the magnifying lens and the grinding wheel, the position of the stabilising support on said frame being adjustable and the stabilising support being designed to provide a support for the hand of the user during sharpening of a dental curette using said device.
A method implemented at least in part by a communication device, the method comprising: for a plurality of contacts stored at the communication device, reading contact information for the contacts; communicating the contact information to an address clearinghouse; receiving from the address clearinghouse, participation confirmation for a participating contact out of the contacts, the participation confirmation comprising an indication that the participating contact is a participant in a video calling service; locally storing the indication that the participating contact is a participant in the video calling service; and subsequently conducting an audio-only call with the participating contact, characterized in that: during the audio-only call on the communication device with the participating contact, responsive to the stored indication that the participating contact is a participant in the video calling service, presenting immediately an option to seamlessly escalate the audio-only call on the communication device to a video call on the same communication device via the video calling service. for a plurality of contacts stored at the communication device, reading contact information for the contacts; communicating the contact information to an address clearinghouse; receiving from the address clearinghouse, participation confirmation for a participating contact out of the contacts, the participation confirmation comprising an indication that the participating contact is a participant in a video calling service; locally storing the indication that the participating contact is a participant in the video calling service; and subsequently conducting an audio-only call with the participating contact, characterized in that: during the audio-only call on the communication device with the participating contact, responsive to the stored indication that the participating contact is a participant in the video calling service, presenting immediately an option to seamlessly escalate the audio-only call on the communication device to a video call on the same communication device via the video calling service.
A polynucleotide encoding a fusion polypeptide comprising (i) a tetracycline dependent transactivator (tet-repressor-VP16) and (ii) synaptotagmin, separated by a linker comprising a neurotoxin cleavage site.
A wireless transmit/receive unit, WTRU, comprising: means for receiving, from a current cell, a handover command that instructs the WTRU to handover to a target cell; wherein the handover command includes an identification of the target cell and information representative of a sequence hopping pattern of the target cell; means for performing a handover to the target cell in accordance with the received handover command; and means for transmitting to the target cell using the information representative of the sequence hopping pattern; wherein the information representative of the sequence hopping pattern is for a physical uplink shared channel, PUSCH. means for receiving, from a current cell, a handover command that instructs the WTRU to handover to a target cell; wherein the handover command includes an identification of the target cell and information representative of a sequence hopping pattern of the target cell; means for performing a handover to the target cell in accordance with the received handover command; and means for transmitting to the target cell using the information representative of the sequence hopping pattern; wherein the information representative of the sequence hopping pattern is for a physical uplink shared channel, PUSCH.
A method for evaluating network reliability, the method comprising: acquiring (101; 201) network topology information; characterized by determining (102; 202), according to the acquired network topology information, one or more nodes and a connection that are needed to be analyzed; and determining (103; 203), according to a network hierarchy comprised in a service or a function of the node that is needed to be analyzed, a network failure analysis hierarchy of the node as an analysis object or a list of analysis objects; acquiring (104; 204) a network failure mode of the analysis object or an analysis object from the list of analysis objects; and analyzing (105; 205) hierarchically, according to the network failure mode, reliability of the acquired analysis object to obtain a reliability evaluation result. acquiring (101; 201) network topology information; characterized by determining (102; 202), according to the acquired network topology information, one or more nodes and a connection that are needed to be analyzed; and determining (103; 203), according to a network hierarchy comprised in a service or a function of the node that is needed to be analyzed, a network failure analysis hierarchy of the node as an analysis object or a list of analysis objects; acquiring (104; 204) a network failure mode of the analysis object or an analysis object from the list of analysis objects; and analyzing (105; 205) hierarchically, according to the network failure mode, reliability of the acquired analysis object to obtain a reliability evaluation result.
Motor vehicle drive train device, comprising at least one main drive train for driving a main drive axle, at least one auxiliary drive train driven via the main drive train and a secondary drive axle, which can be driven via the auxiliary drive train, the secondary drive axle being joined to the auxiliary drive train without a transverse differential, characterised in that the auxiliary drive train is joined to the main drive train via a multi-plate clutch and the secondary drive axle comprises a first and a second dog clutch (18, 19) for adopting a differential functionality.
Floor lamp having an electronic control system for the light output, wherein the floor lamp comprises at least two lighting means (12, 13) which can be controlled asynchronously with the electronic control system, or wherein at least one lighting means generates a direct light component for illuminating a work surface and at least one lighting means generates an indirect light component which is not emitted by the free-standing luminaire in the direction of the work surface, wherein the control electronics can be stored-programmed and can be used to dim down and switch off the indirect light component, which is more inefficient for illuminating the work surface, and the direct light component, which is more efficient for illuminating the work surface, in accordance with the current daylight, with increasing daylight or extraneous light, and the indirect light component, which is more efficient for illuminating the work surface, characterized in that the control electronics are adapted to first dim only the indirect light component up to 40% when the daylight or extraneous light increases, and then to dim the more efficient direct light component from 100% to 0% light output together with the indirect light component from 40% to 0% light output and then to switch it off, wherein the control electronics are further adapted to dim the light output inversely when the daylight decreases.
A method for producing an in particular flat composite component with a foam core which has on a first surface and a second surface a first cover layer which is connected to the foam core by a material-formed bond or a second cover layer respectively, wherein the first cover layer consists of a metal and the second cover layer of a fibre-reinforced plastics material, having the following steps: a) heating the cover layers (18, 20) and the.foam core, b) positioning the cover layers (18, 20) on the surfaces (14, 16) of the foam core, c) positioning the foam core and the cover layers (18, 20) in a press or a mould which forms the finished composite component, d) shaping the foam core and the cover layers (18, 20) in the press or the mould, wherein the cover layers (18, 20) can be displaced on the surfaces (14, 16) of the foam core, e) cooling and connection by a material-formed bond of the foam core and the cover layers (18, 20) in the press or the mould, f) removing the composite component from the press or the mould, characterised in that the cover layers (18, 20) are heated to a temperature of 240°C to 380°C and the foam core is heated to a temperature of 160°C to 200°C. a) heating the cover layers (18, 20) and the.foam core, b) positioning the cover layers (18, 20) on the surfaces (14, 16) of the foam core, c) positioning the foam core and the cover layers (18, 20) in a press or a mould which forms the finished composite component, d) shaping the foam core and the cover layers (18, 20) in the press or the mould, wherein the cover layers (18, 20) can be displaced on the surfaces (14, 16) of the foam core, e) cooling and connection by a material-formed bond of the foam core and the cover layers (18, 20) in the press or the mould, f) removing the composite component from the press or the mould, characterised in that
A motorized winder for aspiration of fumes comprising: - a winding drum rotatable about an axis of rotation and exhibiting a tubular skirt for windingly receiving a flexible tube for aspirating, said drum exhibiting connection means to a pneumatic aspirating source; - at least a support element which can be fixed to a surface and is configured to support said winding drum rotatably about said axis of rotation; - an electric actuator having a tubular configuration, comprising a fixing portion solidly connected with the support element and an actuating portion that is rotatable relative to the fixing portion; - transmission means active between the actuating portion of the electric actuator and the drum for driving the drum in rotation about said axis of rotation; wherein the actuating portion of the electric actuator exhibits an axis of rotation coinciding with the axis of rotation of the drum, and wherein the electric actuator is at least partially reversibly inserted internally of the winding drum; wherein the drum exhibits at least a first end wall arranged at an axial end of the skirt and wherein said transmission means comprise a hollow central shaft coaxial with said axis of rotation of the drum and extending between the actuating portion of the electric actuator and said first end wall for mechanically connecting the actuating portion of the electric actuator with said first end wall, said hollow central shaft being arranged entirely internally of the winding drum; wherein said hollow central shaft exhibits an access opening arranged at said first end wall and configured for enabling reversible insertion of said electric actuator; wherein said support element comprises a fork structure exhibiting a first end flange and a second end flange, which first end flange and second end flange are configured so as to simultaneously support said winding drum at both axial ends of the skirt, and wherein each of said end flanges (21, 22) exhibits an axial expansion (21b, 22a) oriented internally of the drum and defining a rotatable support for a respective side of the drum. - a winding drum rotatable about an axis of rotation and exhibiting a tubular skirt for windingly receiving a flexible tube for aspirating, said drum exhibiting connection means to a pneumatic aspirating source; - at least a support element which can be fixed to a surface and is configured to support said winding drum rotatably about said axis of rotation; - an electric actuator having a tubular configuration, comprising a fixing portion solidly connected with the support element and an actuating portion that is rotatable relative to the fixing portion; - transmission means active between the actuating portion of the electric actuator and the drum for driving the drum in rotation about said axis of rotation;