mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting an extracellular membrane vesicle in a sample, comprising the following steps: a step for forming a complex of a Tim 4 protein bound to a carrier, and the extracellular membrane vesicle in the sample, in the presence of a calcium ion (complex formation step), a step for detecting the complex using an anti-extracellular membrane vesicle antibody (detection step). a step for forming a complex of a Tim 4 protein bound to a carrier, and the extracellular membrane vesicle in the sample, in the presence of a calcium ion (complex formation step), a step for detecting the complex using an anti-extracellular membrane vesicle antibody (detection step).
An asphalt composition, comprising: an asphalt having a T10 boiling point of at least 900°F (482°C); and from 0.25 wt% to 2.0 wt% of a cracking resistance additive, the cracking resistance additive comprising at least one of a polyalphaolefin, an alkylated aromatic based on an aromatic having two or more fused aromatic rings and an average alkyl chain length of at least 10 carbons, and an organic ester, the boiling point of the cracking resistance additive being at least 140°C.
Plug-in connector arrangement comprising two intermateable plug-in connector parts (100, 200), which both have housing parts (101, 201) that are respectively adjusted to each other, and inside of these have plug contacts (110, 210) that are adjusted to each other, wherein the two housing parts (101, 201) have snap-in elements for the releasable interlocking of the two housing parts, wherein the snap-in elements comprise at least one snap-in tongue with a snap-in nose arranged in a tongue receiving pocket in the first housing part, with that snap-in nose meshing with an opening provided for it in a housing wall of the second housing part, and that the tongue receiving pocket in the first housing part is formed in a groove-shaped manner with a substantially U-shaped cross-section, characterized in that the two lateral U-legs (510, 520) protrude beyond the snap-in tongue and wherein the snap-in nose lie completely within the tongue receiving pocket bordered by the U-legs (510, 520), that guide grooves (610, 620) are provided for both U-legs (510, 520) in the second housing part and that the guide grooves (610, 620) and a set-back surface arranged between them limit the tongue receiving pocket in the second plug-in connector part, inside of which the snap-in tongue comes to rest in the mated state of the two plug-in connector parts (101, 201).
A method for generating a desired final load upon completion of a start sequence of a gas turbine within a start duration, the method comprising: receiving the start duration and the desired final load; accelerating the gas turbine to a frequency of the electrical grid and electrically coupling a generator driven by the gas turbine to the electrical grid, thereby synchronizing the gas turbine with the electrical grid, based at least in part on the start duration and the desired final load, calculating a target load rate suited to reach the desired final load within the start duration; and characterized in, after synchronizing the gas turbine with an electrical grid, periodically • measuring at least one present load at a respective time while loading the gas turbine with the target load rate; • based at least in part on the measurements of the at least one present load, recalculating (420, 545) the target load rate so as to achieve the desired final load within the start duration with the recalculated target load rate; and • based at least in part on the recalculation, applying (425, 550) the recalculated load rate. receiving the start duration and the desired final load; accelerating the gas turbine to a frequency of the electrical grid and electrically coupling a generator driven by the gas turbine to the electrical grid, thereby synchronizing the gas turbine with the electrical grid, based at least in part on the start duration and the desired final load, calculating a target load rate suited to reach the desired final load within the start duration; and characterized in, after synchronizing the gas turbine with an electrical grid, periodically • measuring at least one present load at a respective time while loading the gas turbine with the target load rate; • based at least in part on the measurements of the at least one present load, recalculating (420, 545) the target load rate so as to achieve the desired final load within the start duration with the recalculated target load rate; and • based at least in part on the recalculation, applying (425, 550) the recalculated load rate. • measuring at least one present load at a respective time while loading the gas turbine with the target load rate; • based at least in part on the measurements of the at least one present load, recalculating (420, 545) the target load rate so as to achieve the desired final load within the start duration with the recalculated target load rate; and • based at least in part on the recalculation, applying (425, 550) the recalculated load rate.
Spring compressor having a loading device which can be inserted axially into a coil spring to be loaded, and having a first and a second loading plate which can be coupled to the loading device at a distance from each other, the second loading plate having an opening for receiving the loading device, wherein a pressure piece is displaceable along the loading device by the effect of an actuator in order to adjust the distance between the loading plates (4, 5), wherein a dome-shaped contact surface is formed between the pressure piece and the second loading plate for force transmission as well as an anti-rotation means for preventing the pressure piece from rotating relative to the loading plate, the anti-rotation means having projections and pockets for the projections, characterised in that the projections and the pockets interrupt the dome-shaped contact surface in circumferential direction and divide it into contact surface regions (21, 24) which are separate from each other, the dome-shaped contact surface regions being larger overall in circumferential direction than the circumferential region in which the projections and the pockets are arranged.
An electric cable, comprising an elongated electric conductor including in a cross-section, a plurality of segments electrically insulated from each other, each of said insulated segments comprising a plurality of metal wires, at least one of said metal wires in at least one of said segments being covered with at least one electrically insulating layer, said electric cable being characterized in that said electrically insulating layer is obtained from a composition A comprising at least one acrylic polymer and at least one salt of a transition metal.
A rubber composition comprising: a rubber component; a filler in an amount of 40 to 125 parts by mass per 100 parts by mass of the rubber component; and a hydrogenated resin in an amount of 5 to 50 parts by mass per 100 parts by mass of the rubber component, the resin having a softening point of higher than 110°C and a weight average molecular weight, as determined in terms of polystyrene, of 200 to 1200 g/mol, wherein the hydrogenated resin is at least one selected from the group consisting of a hydrogenated C 5 -based resin, a hydrogenated C 5 -C 9 -based resin, and a hydrogenated dicyclopentadiene-based resin, wherein the rubber component comprises a styrene-butadiene rubber and a rubber having an isoprene skeleton, and wherein the filler comprises silica. a rubber component; a filler in an amount of 40 to 125 parts by mass per 100 parts by mass of the rubber component; and a hydrogenated resin in an amount of 5 to 50 parts by mass per 100 parts by mass of the rubber component, the resin having a softening point of higher than 110°C and a weight average molecular weight, as determined in terms of polystyrene, of 200 to 1200 g/mol, wherein the hydrogenated resin is at least one selected from the group consisting of a hydrogenated C 5 -based resin, a hydrogenated C 5 -C 9 -based resin, and a hydrogenated dicyclopentadiene-based resin, wherein the rubber component comprises a styrene-butadiene rubber and a rubber having an isoprene skeleton, and wherein the filler comprises silica.
An imaging device comprising: a first imaging cell including a first photoelectric converter (PCx) including a first pixel electrode, a first opposite electrode, and a first photoelectric conversion layer between the first pixel electrode and the first opposite electrode, the first photoelectric converter (PCx) generating first signal charge by photoelectric conversion, and a first charge detection circuit (CDx) connected to the first pixel electrode, the first charge detection circuit (CDx) detecting the first signal charge; a second imaging cell including a second photoelectric converter (PCy) including a second pixel electrode, a second opposite electrode, and a second photoelectric conversion layer between the second pixel electrode and the second opposite electrode, the second photoelectric converter (PCy) generating second signal charge by photoelectric conversion, and a second charge detection circuit (CDy) connected to the second pixel electrode, the second charge detection circuit (CDy) detecting the second signal charge; and a voltage supply circuit supplying a voltage such that, in a first frame period, a potential difference between the first pixel electrode and the first opposite electrode at a start time of a charge accumulation period of the first imaging cell is made different from a potential difference between the second pixel electrode and the second opposite electrode at a start time of a charge accumulation period of the second imaging cell. a first imaging cell including a first photoelectric converter (PCx) including a first pixel electrode, a first opposite electrode, and a first photoelectric conversion layer between the first pixel electrode and the first opposite electrode, the first photoelectric converter (PCx) generating first signal charge by photoelectric conversion, and a first charge detection circuit (CDx) connected to the first pixel electrode, the first charge detection circuit (CDx) detecting the first signal charge; a second imaging cell including a second photoelectric converter (PCy) including a second pixel electrode, a second opposite electrode, and a second photoelectric conversion layer between the second pixel electrode and the second opposite electrode, the second photoelectric converter (PCy) generating second signal charge by photoelectric conversion, and a second charge detection circuit (CDy) connected to the second pixel electrode, the second charge detection circuit (CDy) detecting the second signal charge; and a voltage supply circuit supplying a voltage such that, in a first frame period, a potential difference between the first pixel electrode and the first opposite electrode at a start time of a charge accumulation period of the first imaging cell is made different from a potential difference between the second pixel electrode and the second opposite electrode at a start time of a charge accumulation period of the second imaging cell.
A method of printing, comprising identifying vertical edges corresponding to a halftone image; determining whether a lightness of color of a first predetermined area to a left side of a respective vertical edge is substantially equal to, less than, or greater than the lightness of color of a second predetermined area to a right side of the respective vertical edge; categorizing respective vertical edges as left vertical edges in response to a determination that the lightness of color of the first predetermined area is less than the lightness of color of the second predetermined area; categorizing respective vertical edges as right vertical edges in response to a determination that the lightness of color of the first predetermined area is greater than the lightness of color of the second predetermined area; categorizing respective vertical edges as neutral vertical edges in response to a determination that the lightness of color of the first predetermined area is substantially equal to the lightness of color of the second predetermined area; printing the left vertical edges as part of a printed image by the printhead moving in the forward scanning direction; and printing the right vertical edges as part of the printed image by the printhead moving in the reverse scanning direction; and printing the neutral vertical edges as part of the printed image by the printhead moving in the forward scanning direction or the reverse scanning direction.
A method of controlling aerosol production in an aerosol-generating device, the device comprising: a heater comprising at least one heating element configured to heat an aerosol-forming substrate; and a power source for providing power to the heating element, characterised by the steps of: controlling the power provided to the heating element such that in a first phase power is provided such that the temperature of the heating element increases from an initial temperature to a first temperature, in a second phase power is provided such that the temperature of the heating element drops below the first temperature and in a third phase power is provided such that the temperature of the heating element increases again. a heater comprising at least one heating element configured to heat an aerosol-forming substrate; and a power source for providing power to the heating element, characterised by the steps of: controlling the power provided to the heating element such that in a first phase power is provided such that the temperature of the heating element increases from an initial temperature to a first temperature, in a second phase power is provided such that the temperature of the heating element drops below the first temperature and in a third phase power is provided such that the temperature of the heating element increases again. controlling the power provided to the heating element such that in a first phase power is provided such that the temperature of the heating element increases from an initial temperature to a first temperature, in a second phase power is provided such that the temperature of the heating element drops below the first temperature and in a third phase power is provided such that the temperature of the heating element increases again.
An intravascular device for perforation and serration of atherosclerotic plaque within a vessel prior to an angioplasty procedure comprising: a carrier carrying lines or patterns of small sharp spikes and being expandable and collapsible within the vessel, said carrier comprising a slitted tube having ribbon strips extending along a middle region of the tube between longitudinal ends of the tube, both longitudinal ends of the tube being intact, leaving only the middle region of the tube with the ribbon strips, said ribbon strips each being formed with a plurality of the small sharp spikes thereon and said ribbon strips being configured for expansion by an expansion apparatus so as to actuate the spikes to pierce a luminal surface of the plaque with lines or patterns of microperforations which act as serrations for forming cleavage lines or planes in the plaque, and wherein each spike is formed like a polymer gum drop. a carrier carrying lines or patterns of small sharp spikes and being expandable and collapsible within the vessel, said carrier comprising a slitted tube having ribbon strips extending along a middle region of the tube between longitudinal ends of the tube, both longitudinal ends of the tube being intact, leaving only the middle region of the tube with the ribbon strips, said ribbon strips each being formed with a plurality of the small sharp spikes thereon and said ribbon strips being configured for expansion by an expansion apparatus so as to actuate the spikes to pierce a luminal surface of the plaque with lines or patterns of microperforations which act as serrations for forming cleavage lines or planes in the plaque, and wherein each spike is formed like a polymer gum drop.
A compound of general formula I, or a pharmaceutically acceptable acid addition salt, a racemic mixture or its corresponding enantiomer and/or optical isomers thereof, wherein R1 is pyrazole,, thiazole, pyridine, or pyrimidine, optionally substituted by one or two substituents selected from fluorine; methyl or ethyl or propyl, optionally substituted by fluorine or methoxy; cyano; amino optionally substituted by methyl or fluoro-ethyl; C N -methyl, or-ethyl, or -propyl, optionally substituted by fluorine or methoxy; methoxy or ethoxy or propoxy, optionally substituted by fluorine or methoxy; morpholine or piperazine or piperidine, optionally substituted by fluorine or fluoromethyl; X is N, Y is CH and Z is CH; or X is CH, Y is N, and Z is CH; and A is CH, D is N, M is C-R3, and Q is CH; or A is CH, D is N, M is CH, and Q is C-R3; or A is CH, D is C-R3, M is N, and Q is CH; or A is CH, D is CH, M is C-R3, and Q is N; and R3 is H; fluorine; methyl or ethyl or propyl optionally substituted by fluorine, hydroxy or methoxy; methoxy or ethoxy or propoxy optionally substituted by fluorine or hydroxyl or methoxy; di-methyl-amino; NH-methyl or ethyl or propyl optionally substituted by fluorine, hydroxy or methoxy; and wherein any H of the formula is H or its 2 H or 3 H isotope; any C of the general formula is C or its radioactive isotope 14 C, or 11 C; any F of the formula is F or its radioactive isotope 18 F provided that the compound of formula I is not a compound of general formula Ro I wherein R is hydrogen or tritium; F is fluoro or 18 fluoro; or a pharmaceutically acceptable acid addition salt thereof R1 is pyrazole,, thiazole, pyridine, or pyrimidine, optionally substituted by one or two substituents selected from fluorine; methyl or ethyl or propyl, optionally substituted by fluorine or methoxy; cyano; amino optionally substituted by methyl or fluoro-ethyl; C N -methyl, or-ethyl, or -propyl, optionally substituted by fluorine or methoxy; methoxy or ethoxy or propoxy, optionally substituted by fluorine or methoxy; morpholine or piperazine or piperidine, optionally substituted by fluorine or fluoromethyl; X is N, Y is CH and Z is CH; or X is CH, Y is N, and Z is CH; and A is CH, D is N, M is C-R3, and Q is CH; or A is CH, D is N, M is CH, and Q is C-R3; or A is CH, D is C-R3, M is N, and Q is CH; or A is CH, D is CH, M is C-R3, and Q is N; and R3 is H; fluorine; methyl or ethyl or propyl optionally substituted by fluorine, hydroxy or methoxy; methoxy or ethoxy or propoxy optionally substituted by fluorine or hydroxyl or methoxy; di-methyl-amino; NH-methyl or ethyl or propyl optionally substituted by fluorine, hydroxy or methoxy; and wherein any H of the formula is H or its 2 H or 3 H isotope; any C of the general formula is C or its radioactive isotope 14 C, or 11 C; any F of the formula is F or its radioactive isotope 18 F provided that the compound of formula I is not a compound of general formula Ro I R is hydrogen or tritium; F is fluoro or 18 fluoro;
A rigid core mold which is a rigid core mold for manufacturing a pneumatic tire including an annular core-mold main portion having a molding surface for shaping the inner surface of a toroidal pneumatic tire having a tread portion, sidewall portions and bead portions, the core-mold main portion composed of a plurality of core segments arranged in the tire circumferential direction and each taken out from the pneumatic tire by moving inwardly in the tire radial direction, and characterized in that in a meridian section of the core-mold main portion including a tire revolution axis, the ratio Bd/W of a maximum width W in the tire axial direction lying in regions for shaping the sidewall portions, and a width Bd in the tire axial direction measured at toe-end shaping positions for shaping the toe ends of the bead portions is not less than 0.80, an inside zone of the molding surface from the toe-end shaping positions to the position of the maximum width W has a width in the tire axial direction gradually decreasing toward the inside in the tire radial direction, the angle α of the tangent to the molding surface in the inside zone is not more than 45 degrees with respect to a line in the tire radial direction, the inside zone includes an oblique part where the angle α of the tangent is 30 to 45 degrees, and the ratio h/H of the length h in the tire radial direction of the oblique part and the length H in the tire radial direction measured to an intersecting point at which a line in the tire radial direction drawn outwardly in the tire radial direction from the toe-end shaping position intersects with the molding surface is less than 0.25.
A chain link of an energy guiding chain including at least one plastic injection moulded part (2A, 2B; 3A, 3B; 4), in particular a side part (2A, 2B; 3A, 3B), wherein the injection moulded part (2A, 2B; 3A, 3B; 4) is produced in the injection moulding method in the form of a one-piece plastic body from a plastic with a colouration that remains the same throughout, which has a first side, in particular an outside of the side part (2A, 2B; 3A, 3B), having a first surface, and a second side, in particular an inside of the side part (2A, 2B; 3A, 3B), and wherein there is provided at least one marking visible at the first side, characterised in that the at least one marking includes a data code marking (10; 20) with a 2D code, namely a QR code, in particular in accordance with ISO/IEC 18004, which encodes data and the data code marking with the QR code is introduced in the injection moulding method from a visually black plastic into the plastic body and is provided in machine-readable manner at the first side. the at least one marking includes a data code marking (10; 20) with a 2D code, namely a QR code, in particular in accordance with ISO/IEC 18004, which encodes data and the data code marking with the QR code is introduced in the injection moulding method from a visually black plastic into the plastic body and is provided in machine-readable manner at the first side.
Household operating device having a first and at least one second current-conductive element (10, 12; 10a), which are conductively connected to each other during at least one operating process and through which current flows during the operating process, and having at least one mounting unit which movably mounts the second current-conductive element relative to the first current-conductive element (10; 10a), characterised in that the second current-conductive element has at least one coupling means which is provided for an attachment of at least one component, in order to connect a mechanical attachment and an electrical contact to each other.