mhurhangee/ep-ind-claims huggingface dataset:
A process to verify time information from time data (110, 120, 130; 210, 220) modulated on a continuous carrier signal, comprising: - Receiving first time data (110; 210) with a first reference time point (112; 212); - Receiving second time data (120; 220) with a second reference time point (122; 222), that follows the first reference time point (112; 212) in time; - Calculating the nominal time interval between the reference time points (112, 122; 212, 222) from the time information contained in the received time data (110, 120; 210, 220); - determining a time interval (112-122; 216) and determining a reference time interval (170; 270) by counting periods of the continuous carrier signal within the time interval (112-122; 216); - Comparing the nominal time interval with the reference time interval (170; 270) and outputting an error signal if the deviation determined by the comparison exceeds a specified tolerance value, the time data being time information conveyed by modulating a continuous carrier signal, it being possible for time data (110; 120; 210; 220) to be, in particular, a time signal or a time telegram, the time signal being a data structure that is continuously transferred in a fixed time-slot pattern and that contains time information, and a time telegram being a data packet that is transferred and that contains time information. - Receiving first time data (110; 210) with a first reference time point (112; 212); - Receiving second time data (120; 220) with a second reference time point (122; 222), that follows the first reference time point (112; 212) in time; - Calculating the nominal time interval between the reference time points (112, 122; 212, 222) from the time information contained in the received time data (110, 120; 210, 220); - determining a time interval (112-122; 216) and determining a reference time interval (170; 270) by counting periods of the continuous carrier signal within the time interval (112-122; 216); - Comparing the nominal time interval with the reference time interval (170; 270) and outputting an error signal if the deviation determined by the comparison exceeds a specified tolerance value,
Sample container carrier for holding a laboratory sample container and for transporting the held laboratory sample container in a laboratory sample distribution system, the sample container carrier comprising: - a first holding element, - a second holding element, - wherein the first holding element and the second holding element are translationally displaceable towards and/or away from each other for holding the laboratory sample container, and - a coupler, wherein the coupler is connected to the first holding element and to the second holding element, such that the coupler couples translational displacements of the first holding element and the second holding element with each other, characterized - in that the coupler is rotationally moveable, such that the coupler couples by its rotational movement the translational displacements of the first holding element and the second holding element with each other, and - in that the coupler comprises a lever, wherein the lever is connected to the first holding element and to the second holding element. - a first holding element, - a second holding element, - wherein the first holding element and the second holding element are translationally displaceable towards and/or away from each other for holding the laboratory sample container, and - a coupler, wherein the coupler is connected to the first holding element and to the second holding element, such that the coupler couples translational displacements of the first holding element and the second holding element with each other, characterized - in that the coupler is rotationally moveable, such that the coupler couples by its rotational movement the translational displacements of the first holding element and the second holding element with each other, and - in that the coupler comprises a lever, wherein the lever is connected to the first holding element and to the second holding element.
A seal for use between components facing a high pressure cooling air flow and a hot gas path in a gas turbine engine comprising: a first layer comprising a first cooling cutout through which a cooling flow passes into a first cooling pathway in a second layer; the second layer comprising a second cooling cutout, the second cooling cutout forming a first end of the first cooling pathway, the first cooling pathway extending from the first end to a second end; and a third layer, wherein the second layer is positioned in between the first layer and the third layer, the third layer comprising: an inner surface and an outer surface; a recessed slot extending partially into the outer surface; and a metering opening extending from the recessed slot to the inner surface, wherein the recessed slot is configured to achieve a certain flow rate of cooling flow through the metering opening. a first layer comprising a first cooling cutout through which a cooling flow passes into a first cooling pathway in a second layer; the second layer comprising a second cooling cutout, the second cooling cutout forming a first end of the first cooling pathway, the first cooling pathway extending from the first end to a second end; and a third layer, wherein the second layer is positioned in between the first layer and the third layer, the third layer comprising: an inner surface and an outer surface; a recessed slot extending partially into the outer surface; and a metering opening extending from the recessed slot to the inner surface, wherein the recessed slot is configured to achieve a certain flow rate of cooling flow through the metering opening. an inner surface and an outer surface; a recessed slot extending partially into the outer surface; and a metering opening extending from the recessed slot to the inner surface, wherein the recessed slot is configured to achieve a certain flow rate of cooling flow through the metering opening.
A saddle type vehicle with an ABS modulator support structure comprising: a vehicle body frame including a head pipe, a main frame which extends backward from the head pipe and a down frame which extends downward from the head pipe; a power unit arranged in a space enclosed by the main frame and the down frame and supported by these frames; a braking unit which applies a vehicle wheel braking force; and the ABS module connected to the braking unit; a cooling unit including a heat exchanger cooling a cooling medium for cooling the power unit and a reserve tank which storing the cooling medium; an external cover including a pair of shroud which cover right and left side of the down frame; characterised in that the heat exchanger is arranged on one side of the down frame in a width direction of the vehicle; and wherein the ABS module arranged on the other side of the down frame and the reserve tank and the shroud arranged outside of the ABS module. a vehicle body frame including a head pipe, a main frame which extends backward from the head pipe and a down frame which extends downward from the head pipe; a power unit arranged in a space enclosed by the main frame and the down frame and supported by these frames; a braking unit which applies a vehicle wheel braking force; and the ABS module connected to the braking unit; a cooling unit including a heat exchanger cooling a cooling medium for cooling the power unit and a reserve tank which storing the cooling medium; an external cover including a pair of shroud which cover right and left side of the down frame; characterised in that the heat exchanger is arranged on one side of the down frame in a width direction of the vehicle; and wherein the ABS module arranged on the other side of the down frame and the reserve tank and the shroud arranged outside of the ABS module.
A tensioner comprising: a pivot shaft; a pivot arm pivotally mounted on the pivot shaft and defining a groove; a torsion spring that biases the pivot arm about the pivot shaft in a first rotational direction, the torsion spring being a closing-type torsion spring with a plurality of coils that are received about the pivot shaft; a stop sleeve received over the pivot shaft and within the torsion spring, the stop sleeve having a tongue that is received into the groove in the pivot arm, the tongue being smaller than the groove to permit a predetermined amount of movement of the pivot arm relative to the stop sleeve; a first clamp sleeve mounted over the pivot shaft and rotatably coupled to the stop sleeve; a wrap spring having a first end, which is fixedly coupled to the first clamp sleeve, and a plurality of helical coils that are disposed about the stop sleeve; a second clamp sleeve mounted over the pivot shaft and abutting the first clamp sleeve on a side opposite the stop sleeve, the second clamp sleeve being non-rotatably coupled to the first clamp sleeve; at least one damper (272, 272a, 272b, 272c, 272d) coupled to the second clamp sleeve and configured to be in continuous contact with an inside surface of the coils of the torsion spring, the at least one damper (272, 272a, 272b, 272c, 272d) being formed of a resilient material and deflecting inwardly with increasing torque transmitted through the torsion spring; and a friction clamp housed between the first and second clamp sleeves (122, 128), the friction clamp frictionally engaging the pivot shaft. a pivot shaft; a pivot arm pivotally mounted on the pivot shaft and defining a groove; a torsion spring that biases the pivot arm about the pivot shaft in a first rotational direction, the torsion spring being a closing-type torsion spring with a plurality of coils that are received about the pivot shaft; a stop sleeve received over the pivot shaft and within the torsion spring, the stop sleeve having a tongue that is received into the groove in the pivot arm, the tongue being smaller than the groove to permit a predetermined amount of movement of the pivot arm relative to the stop sleeve; a first clamp sleeve mounted over the pivot shaft and rotatably coupled to the stop sleeve; a wrap spring having a first end, which is fixedly coupled to the first clamp sleeve, and a plurality of helical coils that are disposed about the stop sleeve; a second clamp sleeve mounted over the pivot shaft and abutting the first clamp sleeve on a side opposite the stop sleeve, the second clamp sleeve being non-rotatably coupled to the first clamp sleeve; at least one damper (272, 272a, 272b, 272c, 272d) coupled to the second clamp sleeve and configured to be in continuous contact with an inside surface of the coils of the torsion spring, the at least one damper (272, 272a, 272b, 272c, 272d) being formed of a resilient material and deflecting inwardly with increasing torque transmitted through the torsion spring; and a friction clamp housed between the first and second clamp sleeves (122, 128), the friction clamp frictionally engaging the pivot shaft.
A compound of formula in which: R 1 represents methyl, ethyl, trifluoromethyl, 2,2-difluoroethyl, cyano, chloro, bromo, methoxy, or difluoromethoxy; R 2 represents methyl, ethyl, fluoro, chloro, or bromo; R 3 represents hydrogen, methyl, or trifluoromethyl; R 4 represents hydrogen; or R 3 and R 4 together with the carbon atom to which they are attached form a 3- to 5-membered cycloalkyl ring; R 5 represents hydrogen, C 1 -C 3 -alkyl, or C 2 -C 3 -alkenyl, wherein said alkyl groups are optionally substituted one or more times, independently of each other, with fluoro, hydroxy, or methoxy and said alkenyl groups are optionally substituted one or more times with fluoro; or R 3 and R 5 together with the carbon atoms to which they are attached form a 4- to 6-membered cycloalkyl ring; With the proviso that at least one of R 3 and R 5 is different from hydrogen; R 6 represents C 2 -C 5 -alkyl, which is substituted once with hydroxy, C 1 -C 4 -alkoxy, or C 2 -C 3 -alkenyloxy, or a group selected from the group: wherein * indicates the point of attachment of said group with the rest of the molecule; R 7 represents a group selected from the group: wherein * indicates the point of attachment of said group with the rest of the molecule; R 8 independently represents hydrogen, methyl, or fluoro at each occurence; R 9 represents C 1 -C 3 -alkyl or C 2 -C 3 -fluoroalkyl; R 10 represents hydrogen or methyl; or an N-oxide, a salt, a tautomer or a stereoisomer of said compound, or a salt of said N-oxide, tautomer or stereoisomer. R 1 represents methyl, ethyl, trifluoromethyl, 2,2-difluoroethyl, cyano, chloro, bromo, methoxy, or difluoromethoxy; R 2 represents methyl, ethyl, fluoro, chloro, or bromo; R 3 represents hydrogen, methyl, or trifluoromethyl; R 4 represents hydrogen; or R 3 and R 4 together with the carbon atom to which they are attached form a 3- to 5-membered cycloalkyl ring; R 5 represents hydrogen, C 1 -C 3 -alkyl, or C 2 -C 3 -alkenyl, wherein said alkyl groups are optionally substituted one or more times, independently of each other, with fluoro, hydroxy, or methoxy and said alkenyl groups are optionally substituted one or more times with fluoro; or R 3 and R 5 together with the carbon atoms to which they are attached form a 4- to 6-membered cycloalkyl ring; R 6 represents C 2 -C 5 -alkyl, which is substituted once with hydroxy, C 1 -C 4 -alkoxy, or C 2 -C 3 -alkenyloxy, or a group selected from the group: wherein * indicates the point of attachment of said group with the rest of the molecule; R 7 represents a group selected from the group: wherein * indicates the point of attachment of said group with the rest of the molecule; R 8 independently represents hydrogen, methyl, or fluoro at each occurence; R 9 represents C 1 -C 3 -alkyl or C 2 -C 3 -fluoroalkyl; R 10 represents hydrogen or methyl;
A reactor with an inclined gravitational flow of catalyst and with a transverse flow of feed, said reactor being constituted by an outer conical wall and an inner conical wall substantially parallel to each other, the two conical walls being inclined at an angle alpha with respect to the vertical, the point of the cone possibly being directed towards the top or towards the bottom, and the catalyst being introduced into the distribution zone via one or more introduction legs and collected from the outlet of the reaction zone via one or more evacuation legs, the assembly constituted by the outer and inner conical walls, the introduction legs, and the evacuation legs is enclosed in a shell comprising an upper hemispherical portion, a central cylindrical portion and a lower hemispherical portion and the feed being admitted into the interior of the shell via an admission pipe located at the top of the upper hemispherical portion, and the reaction effluents being evacuated via a lower pipe located at the lower portion of the lower hemispherical portion.
A rotor for threshing grain in a combine harvester, the rotor comprising: an auger portion configured to rotate about an axle, wherein the auger portion defines an auger inlet end and an auger outlet end, and wherein rotation of the auger portion serves to move material to be threshed toward the auger outlet end; and a threshing portion substantially aligned with the auger portion and configured to rotate about the axle, wherein the threshing portion defines a threshing inlet end and a threshing outlet end, wherein the threshing inlet end is configured to receive the material to be threshed from the auger outlet end, and wherein rotation of the threshing portion serves to thresh the material and move the threshed material toward the threshing outlet end, wherein rotation of the threshing portion is independent of rotation of the auger portion about the axle. an auger portion configured to rotate about an axle, wherein the auger portion defines an auger inlet end and an auger outlet end, and wherein rotation of the auger portion serves to move material to be threshed toward the auger outlet end; and a threshing portion substantially aligned with the auger portion and configured to rotate about the axle, wherein the threshing portion defines a threshing inlet end and a threshing outlet end, wherein the threshing inlet end is configured to receive the material to be threshed from the auger outlet end, and wherein rotation of the threshing portion serves to thresh the material and move the threshed material toward the threshing outlet end, wherein rotation of the threshing portion is independent of rotation of the auger portion about the axle.
A processor-implemented battery charging method comprising: acquiring a functional relationship between a voltage or a state of charge, SOC, of a battery that increases in response to the battery being charged and a differential value of an amount of charge or the SOC of the battery, wherein the differential value changes in response to the battery being charged; determining charging steps for charging of the battery by segmenting the functional relationship into regions based on changes in main electrochemical reactions, wherein said main electrochemical reactions are dominant electrochemical reactions among electrochemical reactions that occur in response to the battery being charged and are expressed by a predetermined pattern on the functional relationship, said predetermined pattern being acquired experimentally or through simulation; determining charging current ratios comprising acquiring impedances for each of the charging steps based on the main electrochemical reactions corresponding to the charging steps; determining the charging current ratios for each of the charging steps based on the acquired impedances; and generating a charging profile (502, 503) comprising charging currents for each of the charging steps to charge the battery based on the charging current ratios. acquiring a functional relationship between a voltage or a state of charge, SOC, of a battery that increases in response to the battery being charged and a differential value of an amount of charge or the SOC of the battery, wherein the differential value changes in response to the battery being charged; determining charging steps for charging of the battery by segmenting the functional relationship into regions based on changes in main electrochemical reactions, wherein said main electrochemical reactions are dominant electrochemical reactions among electrochemical reactions that occur in response to the battery being charged and are expressed by a predetermined pattern on the functional relationship, said predetermined pattern being acquired experimentally or through simulation; determining charging current ratios comprising acquiring impedances for each of the charging steps based on the main electrochemical reactions corresponding to the charging steps; determining the charging current ratios for each of the charging steps based on the acquired impedances; and generating a charging profile (502, 503) comprising charging currents for each of the charging steps to charge the battery based on the charging current ratios.
A battery pack comprising: a plurality of battery blocks each including a peripheral surface on one end or both ends of which a first connector (11a, 11b) is provided, wherein in each battery block a plurality of secondary batteries is connected to each other in series and/or in parallel; at least one connecting member which connects the plurality of battery blocks to each other such that two respective first connectors (11a, 11b) of two adjacent battery blocks are opposed to each other, wherein each connecting member is provided between end faces (10Sa, 10Sb) of two adjacent battery blocks and the two adjacent battery blocks are connected to each other through the respective connecting member; and at least one second connector, wherein each second connector fits in respective two first connectors (11a, 11b) opposed to each other, wherein each second connector electrically connects respective two adjacent battery blocks to each other in series or in parallel; wherein the battery pack is configured such that adjacent battery blocks are rotationally fixed to a respective connecting member, wherein each battery block includes a first click, each connecting member includes a second click, and rotational fixing is rotational fitting of the first click and the second click. a plurality of battery blocks each including a peripheral surface on one end or both ends of which a first connector (11a, 11b) is provided, wherein in each battery block a plurality of secondary batteries is connected to each other in series and/or in parallel; at least one connecting member which connects the plurality of battery blocks to each other such that two respective first connectors (11a, 11b) of two adjacent battery blocks are opposed to each other, wherein each connecting member is provided between end faces (10Sa, 10Sb) of two adjacent battery blocks and the two adjacent battery blocks are connected to each other through the respective connecting member; and at least one second connector, wherein each second connector fits in respective two first connectors (11a, 11b) opposed to each other, wherein each second connector electrically connects respective two adjacent battery blocks to each other in series or in parallel; wherein the battery pack is configured such that adjacent battery blocks are rotationally fixed to a respective connecting member, wherein each battery block includes a first click, each connecting member includes a second click, and rotational fixing is rotational fitting of the first click and the second click.
A cosmetic composition with antiperspirant and deodorant properties comprising: from 0.05 to 35 % by weight (wt%) of a multi-substituted hydroxyapatite with at least two cations selected among aluminium, zinc, magnesium, zirconium, titanium copper, silver or iron; and at least one of liquid carriers other than water, propellants, other additives having antiperspirant and/or deodorizing effect, emulsifiers, structurants, emollients, fragrances, antioxidants or preservatives.
A head-mounted device, comprising: a head-mounted housing structure; a camera support structure attached to the head-mounted housing structure; a first camera mounted to the camera support structure at a first location; a second camera mounted to the camera support structure at a second location; and an antenna on the camera support structure. a head-mounted housing structure; a camera support structure attached to the head-mounted housing structure; a first camera mounted to the camera support structure at a first location; a second camera mounted to the camera support structure at a second location; and an antenna on the camera support structure.
Adjustment drive (5, 6) for a steering column that is adjustable by motor for a motor vehicle, said adjustment drive comprising a threaded spindle (52, 62) with an axis, said threaded spindle engaging in a spindle nut (51, 61), a drive unit and a gear wheel which is driveable to rotate about the axis by the drive unit and which has a toothing portion, which is arranged axially between two circumferential bearing faces that are coaxial to the axis, wherein the gear wheel is connected to the spindle nut or the threaded spindle for rotation therewith, characterized in that the gear wheel has a core element, to which two bearing rings are connected, said bearing rings each having a bearing face and being axially supported against one another.