mhurhangee/ep-ind-claims huggingface dataset:
Use of a drive device for the motorized adjustment of two vehicle parts (28, 29) which can be pivoted relative to one another, comprising - a housing designed to be pivotably attached to one of the vehicle parts (28, 29); - a drive unit with a motor, wherein the drive unit is attached to the housing; - a spindle nut which is mounted in the housing in a translationally stationary and rotatable manner, can be driven in rotation by the drive unit and has an internal thread, and - a multiple spindle which can be driven in rotation via the spindle nut and the free end of which is designed to be pivotably fastened to the other of the vehicle parts (29, 28) in a rotationally fixed manner with respect to its longitudinal axis, the multiple spindle comprising a first spindle part having an external thread which is in engagement with the internal thread of the spindle nut, and at least one second spindle part which is in threaded engagement with the first spindle part in such a way that the spindle parts (13, 19) form a telescopic arrangement, characterized in that one of the vehicle parts (28, 29) which can pivot relative to one another and for the motorized adjustment of which the drive device is designed is a vehicle door, and in that the drive unit is not self-locking and is designed without a clutch. - a housing designed to be pivotably attached to one of the vehicle parts (28, 29); - a drive unit with a motor, wherein the drive unit is attached to the housing; - a spindle nut which is mounted in the housing in a translationally stationary and rotatable manner, can be driven in rotation by the drive unit and has an internal thread, and - a multiple spindle which can be driven in rotation via the spindle nut and the free end of which is designed to be pivotably fastened to the other of the vehicle parts (29, 28) in a rotationally fixed manner with respect to its longitudinal axis, the multiple spindle comprising a first spindle part having an external thread which is in engagement with the internal thread of the spindle nut, and at least one second spindle part which is in threaded engagement with the first spindle part in such a way that the spindle parts (13, 19) form a telescopic arrangement,
A metal cutting indexable drill tool, comprising: an elongated drill body having a boring shaft and a mount shank; a center drill insert mounted at a distal end of the boring shaft in an insert seat configured to hold the insert against a bottom of the insert seat; a drill flute of the boring shaft configured to direct and form a chip from the center drill insert, wherein the drill flute comprises a chip forming surface at a distal end of the drill flute; wherein the chip forming surface is perpendicular to the bottom of the insert seat for the center drill insert; characterised in that the chip forming surface is arranged at a distance X from a peripheral corner of the center drill insert to a point on a curve, which curve is formed by the intersection of the chip forming surface and an imaginary inscribed sphere, wherein the center of the imaginary inscribed sphere coincide with the center of the distal end of the boring shaft, wherein the radius of the imaginary inscribed sphere is defined by the peripheral corner of the insert; and wherein the distance X divided with the diameter of the drill tool Dc is equal to a chip parameter A which is indicative of the chip diameter to boring diameter ratio; wherein the chip parameter A is 0.3 ≤ A ≤ 0.5. an elongated drill body having a boring shaft and a mount shank; a center drill insert mounted at a distal end of the boring shaft in an insert seat configured to hold the insert against a bottom of the insert seat; a drill flute of the boring shaft configured to direct and form a chip from the center drill insert, wherein the drill flute comprises a chip forming surface at a distal end of the drill flute; wherein the chip forming surface is perpendicular to the bottom of the insert seat for the center drill insert; characterised in that the chip forming surface is arranged at a distance X from a peripheral corner of the center drill insert to a point on a curve, which curve is formed by the intersection of the chip forming surface and an imaginary inscribed sphere, wherein the center of the imaginary inscribed sphere coincide with the center of the distal end of the boring shaft, wherein the radius of the imaginary inscribed sphere is defined by the peripheral corner of the insert; and wherein the distance X divided with the diameter of the drill tool Dc is equal to a chip parameter A which is indicative of the chip diameter to boring diameter ratio; wherein the chip parameter A is 0.3 ≤ A ≤ 0.5.
Driver circuit for a low-inductance power module, comprising a connection and an output, wherein the connection is able to be connected to the source contact of a power transistor and the output is able to be connected to the gate contact of the power transistor, and wherein the driver circuit is designed, in a first operating mode, to generate a first gate-source voltage (U GS1) for the gate contact of the power transistor and to provide it at the output of the driver circuit; wherein the driver circuit is furthermore designed, in a second operating mode, during at least one preset minimum time period, to generate a lower, second gate-source voltage (U GS2) for the gate contact of the power transistor and to provide it at the output of the driver circuit, characterized in that the preset minimum time period corresponds to that time period that is required by a short-circuit detection circuit connected to the power transistor to detect a short circuit when the power transistor is switched on and to initiate and/or perform a shutdown of the power transistor. an output, wherein the connection is able to be connected to the source contact of a power transistor and the output is able to be connected to the gate contact of the power transistor, and wherein the driver circuit is designed, in a first operating mode, to generate a first gate-source voltage (U GS1) for the gate contact of the power transistor and to provide it at the output of the driver circuit; wherein the driver circuit is furthermore designed, in a second operating mode, during at least one preset minimum time period, to generate a lower, second gate-source voltage (U GS2) for the gate contact of the power transistor and to provide it at the output of the driver circuit, characterized in that the preset minimum time period corresponds to that time period that is required by a short-circuit detection circuit connected to the power transistor to detect a short circuit when the power transistor is switched on and to initiate and/or perform a shutdown of the power transistor.
An obstetric spatula comprising a handle extending along a substantially longitudinal direction and a spoon delimited by a free edge and comprising a concave internal face and an external face, the free edge of the spoon comprising a central extreme part and two curved lateral parts (14, 15), the central extreme par extending in a substantially transverse direction, characterised in that the internal face of the spoon is provided with at least one relief extending between two grooves (17, 18), the relief comprising a proximal face and a distal face, the distal face being oriented towards the free edge of the spoon, the proximal face being oriented towards the handle.
A server (130, 230, 232, 730) operable to provide streaming with coordination of video orientation, CVO, having computer circuitry configured to: receive a device capability exchange message (240, 244) with a CVO attribute for a client (110, 220, 222, 224, 226); characterised in that the server is adapted to: in response to determining, by the server (130, 230, 232, 730), that content at the server (130, 230, 232, 730) to be streamed to the client (110, 220, 222, 224, 226) was captured by an orientation-aware terminal and that the client (110, 220, 222, 224, 226) is not orientation-aware, processing the content to correct misalignment, based on the CVO attribute received in the device capability exchange message (240, 244), and, if the client is orientation aware, sending the content to the client (110, 220, 222, 224, 226) without modification along with video orientation-information embedded in the content.
A method of producing a recombinant vessel dilator (VSDL) peptide, the method comprising the following steps: expressing a fusion polypeptide comprising concatemeric copies of the VSDL peptide wherein each concatemeric copy of the VSDL peptide is flanked by an N-terminally located peptide cleavage site and a C-terminally located peptide cleavage site, wherein said peptide cleavage sites are otherwise absent from the VSDL peptide; and cleaving the fusion polypeptide at the peptide cleavage site(s) with a cleaving agent(s) that cleaves at the peptide cleavage site(s); wherein the step of cleaving the fusion polypeptide releases said peptide from the fusion polypeptide; characterised in that: the VSDL peptide consists of a native peptide sequence comprising a C terminal arginine residue; the C-terminally located peptide cleavage site of each concatemeric copy of the VSDL peptide consists of the C terminal arginine residue; and the C terminal arginine residue of each VSDL peptide except the last VSDL peptide in the fusion polypeptide additionally serves as the N-terminally located peptide cleavage site of a following VSDL peptide, wherein VSDL peptide comprises or consists of the amino acid sequence according to SEQ ID NO: 2. expressing a fusion polypeptide comprising concatemeric copies of the VSDL peptide wherein each concatemeric copy of the VSDL peptide is flanked by an N-terminally located peptide cleavage site and a C-terminally located peptide cleavage site, wherein said peptide cleavage sites are otherwise absent from the VSDL peptide; and cleaving the fusion polypeptide at the peptide cleavage site(s) with a cleaving agent(s) that cleaves at the peptide cleavage site(s); wherein the step of cleaving the fusion polypeptide releases said peptide from the fusion polypeptide; the VSDL peptide consists of a native peptide sequence comprising a C terminal arginine residue; the C-terminally located peptide cleavage site of each concatemeric copy of the VSDL peptide consists of the C terminal arginine residue; and the C terminal arginine residue of each VSDL peptide except the last VSDL peptide in the fusion polypeptide additionally serves as the N-terminally located peptide cleavage site of a following VSDL peptide, wherein VSDL peptide comprises or consists of the amino acid sequence according to SEQ ID NO: 2.
A harness assembly, comprising: a cable having a cable shielding around at least a portion of a plurality of wires; a connector with an integrated backshell arranged at an angle with respect to the cable; an external braid disposed around at least a portion of the backshell and the cable; and an overbraid around at least a portion of the external braid; characterized by the overbraid having two layers (28, 30); wherein the overbraid is a single material folded over at least a portion of itself to form the two layers (28, 30); and wherein an end of the overbraid is secured to the cable. a cable having a cable shielding around at least a portion of a plurality of wires; a connector with an integrated backshell arranged at an angle with respect to the cable; an external braid disposed around at least a portion of the backshell and the cable; and an overbraid around at least a portion of the external braid; characterized by the overbraid having two layers (28, 30); wherein the overbraid is a single material folded over at least a portion of itself to form the two layers (28, 30); and wherein an end of the overbraid is secured to the cable.
Warp knitting machine having a first knitting tool assembly which has a multiplicity of first knitting tools that are moveable in an identical manner, and a second knitting tool assembly, wherein the first knitting tool assembly and the second knitting tool assembly are moveable relative to one another during a loop-formation cycle, wherein the first knitting tools are supported on the second knitting tool assembly at least in part of the loop-formation cycle and the second knitting tool assembly has lamellas, lamella tracks in which the first knitting tools are disposed at least in part of the loop-formation procedure being configured between said lamellas, characterized in that an inlet region that is adjacent to the operation region of the first knitting tools has a gap widening (s*) between the lamellas and the first knitting tools.
A method of sealing a bottle designed for commercial bottling of a beverage or liquid food, preferably a wine bottle, using a system comprising a stopper (1, 10, 100, 200, 300, 410) and a sealing element (4,440), the stopper (1, 10, 100, 200, 410) comprising a stopper part (2, 412) for introduction into a mouth of the bottle, and a head part (3, 413) for remaining outside the mouth, the head part (3, 413) having a diameter that is larger than that of the stopper part (2, 412); and the sealing element comprises at least a first component and a second component separate from the first component, wherein the first component of the sealing element comprises the counterpart interlocking mechanism adapted to engage with the interlocking mechanism on the stopper and wherein the second component comprises a sealing part (42, 422), wherein the stopper part (2, 412) comprises an interlocking mechanism for engaging with a counterpart interlocking mechanism of the sealing element (4, 440), which is separate from the bottle; wherein the sealing element (4, 440) is configured to be forced against an inner wall of the mouth, thereby being brought into a sealed position, upon introducing the stopper part (2, 412) into the mouth, in which sealed position the stopper is held on the bottle by way of a frictional connection; and wherein the interlocking mechanisms are configured to permit bringing the sealing element into an unsealed position by an unsealing action which comprises rotating the stopper with respect to the bottle; the method comprising the following steps: assembling the system by introducing the stopper part (2, 412) of the stopper (1, 10, 100, 200, 300, 410) into the sealing element (4, 440), and introducing the system (1, 10, 100, 200, 300, 410) into the mouth of the bottle, preferably by pressing, until the sealed position is reached. the method comprising the following steps: assembling the system by introducing the stopper part (2, 412) of the stopper (1, 10, 100, 200, 300, 410) into the sealing element (4, 440), and introducing the system (1, 10, 100, 200, 300, 410) into the mouth of the bottle, preferably by pressing, until the sealed position is reached. assembling the system by introducing the stopper part (2, 412) of the stopper (1, 10, 100, 200, 300, 410) into the sealing element (4, 440), and introducing the system (1, 10, 100, 200, 300, 410) into the mouth of the bottle, preferably by pressing, until the sealed position is reached.
A fuel rod quiver for fuel rods, in particular for damaged fuel rods, wherein the fuel rod quiver is embodied with an interior, which is enclosed by a quiver bottom, a quiver jacket and a quiver cover, wherein the quiver cover has a quiver cover opening, which can be closed by means of a closure element, wherein the fuel rod quiver has dimensions, which correspond to the dimensions of an operational or undamaged fuel element, respectively, so that the fuel rod quiver can be introduced into a transport container and/or storage container, which is known from the prior art, instead of a fuel element, wherein at least one accommodating pipe for a fuel rod is arranged in the interior, which accommodating pipe is closed in a fluid-tight manner on an end on the quiver bottom side, wherein the closure element can be inserted into the cover opening, and characterized in that at least two temperature control medium ducts are embodied in the interior, wherein the at least one accommodating pipe is arranged in a first temperature control medium duct, through which first temperature control medium duct a temperature control medium can be introduced into the interior, and wherein the temperature control medium can be discharged from the interior through a second temperature control medium duct and and that the second temperature control medium duct is arranged so as to be centered in the fuel rod quiver.
An air turbine starter for starting an engine, comprising: a starter housing defining an inlet, an outlet, and a flow path extending between the inlet and the outlet; and a turbine section located within the starter housing for rotatably extracting mechanical power from a flow of gas through the flow path, the turbine section comprising: a turbine member comprising a central disk and a set of airfoils spaced circumferentially about the central disk; a sealing structure located within the starter housing; and a fastener (90, 90B) closing the sealing structure, the fastener (90, 90B) comprising a threaded bolt with a first end (91, 91B) comprising a head with a cutting face (95, 95B) confronting the central disk of the turbine member. a starter housing defining an inlet, an outlet, and a flow path extending between the inlet and the outlet; and a turbine section located within the starter housing for rotatably extracting mechanical power from a flow of gas through the flow path, the turbine section comprising: a turbine member comprising a central disk and a set of airfoils spaced circumferentially about the central disk; a sealing structure located within the starter housing; and a fastener (90, 90B) closing the sealing structure, the fastener (90, 90B) comprising a threaded bolt with a first end (91, 91B) comprising a head with a cutting face (95, 95B) confronting the central disk of the turbine member. a turbine member comprising a central disk and a set of airfoils spaced circumferentially about the central disk; a sealing structure located within the starter housing; and a fastener (90, 90B) closing the sealing structure, the fastener (90, 90B) comprising a threaded bolt with a first end (91, 91B) comprising a head with a cutting face (95, 95B) confronting the central disk of the turbine member.
A compound of formula wherein X is NH; Y is OH; A is H or COOH; B is H, CH 2 OH or CH 2 NH 2; (a) ZR 1 R 2 is isoquinolin-1-yl, said isoquinolin-1-yl being partially or fully hydrated in the N-containing ring; or given by formula or (b) Z is O or N; R 1 is (i) C 1 to C 6 alkyl, preferably CH 3; C 2 to C 6 alkenyl; or C 2 to C 6 alkynyl; or (ii) arylalkyl or heteroarylalkyl, preferably phenylalkyl, alkyl in said arylalkyl or heteroarylalkyl being C 1 to C 4 alkyl, phenylalkyl preferably being CH 2 C 6 H 5; R 2 is (iii) absent in case of Z being O; or (iv) H in case of Z being N; with the proviso that 2-(4-hydroxyphenyl)-N'-methylethanimidamide and 2-(4-hydroxyphenyl)-N'-ethylethanimidamide are excluded. X is NH; Y is OH; A is H or COOH; B is H, CH 2 OH or CH 2 NH 2; (a) ZR 1 R 2 is isoquinolin-1-yl, said isoquinolin-1-yl being partially or fully hydrated in the N-containing ring; or given by formula or (b) Z is O or N; R 1 is (i) C 1 to C 6 alkyl, preferably CH 3; C 2 to C 6 alkenyl; or C 2 to C 6 alkynyl; or (ii) arylalkyl or heteroarylalkyl, preferably phenylalkyl, alkyl in said arylalkyl or heteroarylalkyl being C 1 to C 4 alkyl, phenylalkyl preferably being CH 2 C 6 H 5; R 2 is (iii) absent in case of Z being O; or (iv) H in case of Z being N; with the proviso that 2-(4-hydroxyphenyl)-N'-methylethanimidamide and 2-(4-hydroxyphenyl)-N'-ethylethanimidamide are excluded. (a) ZR 1 R 2 is isoquinolin-1-yl, said isoquinolin-1-yl being partially or fully hydrated in the N-containing ring; or given by formula or (b) Z is O or N; R 1 is (i) C 1 to C 6 alkyl, preferably CH 3; C 2 to C 6 alkenyl; or C 2 to C 6 alkynyl; or (ii) arylalkyl or heteroarylalkyl, preferably phenylalkyl, alkyl in said arylalkyl or heteroarylalkyl being C 1 to C 4 alkyl, phenylalkyl preferably being CH 2 C 6 H 5; R 2 is (iii) absent in case of Z being O; or (iv) H in case of Z being N; with the proviso that 2-(4-hydroxyphenyl)-N'-methylethanimidamide and 2-(4-hydroxyphenyl)-N'-ethylethanimidamide are excluded. Z is O or N; R 1 is (i) C 1 to C 6 alkyl, preferably CH 3; C 2 to C 6 alkenyl; or C 2 to C 6 alkynyl; or (ii) arylalkyl or heteroarylalkyl, preferably phenylalkyl, alkyl in said arylalkyl or heteroarylalkyl being C 1 to C 4 alkyl, phenylalkyl preferably being CH 2 C 6 H 5; (i) C 1 to C 6 alkyl, preferably CH 3; C 2 to C 6 alkenyl; or C 2 to C 6 alkynyl; or (ii) arylalkyl or heteroarylalkyl, preferably phenylalkyl, alkyl in said arylalkyl or heteroarylalkyl being C 1 to C 4 alkyl, phenylalkyl preferably being CH 2 C 6 H 5; R 2 is (iii) absent in case of Z being O; or (iv) H in case of Z being N; (iii) absent in case of Z being O; or (iv) H in case of Z being N;
A porthole gasket (57, 57', 57") for installation between a corrugated first plate and a second plate of a heat exchanger such that a central extension plane (e-e, e'-e') of the porthole gasket is parallel to the first and second plates, which porthole gasket is annular and arranged to enclose, within an inner periphery (58, 58') of the porthole gasket, a porthole area of the first plate and a porthole area of the second plate, wherein a first surface of the porthole gasket, which is arranged to engage with the first plate, is corrugated so as to define alternately arranged gasket ridges and gasket valleys along a longitudinal extension of the porthole gasket, which gasket ridges and gasket valleys are arranged to mate with plate valleys and plate ridges, respectively, of the first plate, and a second surface of the porthole gasket, which is arranged to engage with a plate arrangement comprising the second plate, is essentially plane and arranged to contact an essentially plane surface of the plate arrangement, the gasket ridges protruding, and the gasket valleys descending, in a normal direction (n) of the central extension plane, widths (w0-w8) of the porthole gasket being measured parallel to the central extension plane and perpendicular to the longitudinal extension of the porthole gasket, wherein the first surface of the porthole gasket defines a first bead extending along the longitudinal extension of the porthole gasket and protruding from the gasket ridges and gasket valleys in the normal direction (n) of the central extension plane (e-e, e'-e'), and wherein the first surface defines a second bead extending along the longitudinal extension of the porthole gasket and connecting a number of the gasket ridges, the second bead protruding in the normal direction (n) of the central extension plane (e-e, e'-e'), the second bead extending at a distance from the inner periphery (58, 58') of the porthole gasket.