mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for automatically forming and filling containers, comprising a plurality of workstations (12, 12') and a conveyer (14, 14'), the workstations (12, 12') at least comprising a container forming station, a filling station and a closing station, the container forming station being designed for forming a container from a container preform, the filling station being designed for filling the formed container with a fluid, the closing station being designed for closing the filled container, and the conveyer (14, 14') being designed for moving the container preform and the container between the workstations (12, 12'), characterized in that the conveyer (14, 14') has a number of container carriers (34, 56, 58, 60) and a number of movement units (36, 38, 40, 42, 192, 196, 200) for moving the container carriers, and the workstations (12, 12') further comprise an insertion station (16, 16') and an ejection station, with the insertion station (16, 16') being designed for assigning the container preform to a defined container carrier, the ejection station being designed for ejecting the container out of the container carrier, the conveyer (14, 14') being designed for moving the container carrier from the insertion station via the container forming station, the filling station and the closing station to the ejection station, and with the container preform and the container formed from the preform continuously residing in the container carrier assigned to the container preform.
A method for routing data in a network from a plurality of content sources that store the data to a receiving device, characterized by comprising: generating a network topology in which each of the content sources that store the data are represented as virtual routers that are each connected to a common virtual content server by respective infinite capacity communication links; determining optimized routing through the network topology for the data from the virtual content server to the receiving device; determining, in dependence on the optimized routing, a data allocation for each of the content sources to transmit data through the network to the receiving device. generating a network topology in which each of the content sources that store the data are represented as virtual routers that are each connected to a common virtual content server by respective infinite capacity communication links; determining optimized routing through the network topology for the data from the virtual content server to the receiving device; determining, in dependence on the optimized routing, a data allocation for each of the content sources to transmit data through the network to the receiving device.
An anti-theft electronic device with instantaneous geographic signalling and positioning, for use on a carrier, for signaling in the event of theft of the respective carrier, on the basis of taking of biometric features, comprised of capturing electronic components designed for capturing and storing the biometric features of the owner of said carrier, a transmitter designed for transmitting signals, when said capturing electronic components are detecting biometric features different from the memorized one, to an amplifier connected to optical or audible signalling devices of the anti-theft electronic device, said signals being send in parallel to a mobile network system, through a visualizing channel, equipped with a monitor.
A sampling circuitry for a plurality of electrodes, comprising: a plurality of charge amplifiers (127, 820) and a plurality of sigma delta modulators or incremental modulators, wherein each charge amplifier and each modulator, comprised in said plurality of charge amplifiers and said plurality of modulators, respectively, corresponds to an electrode of said plurality of electrodes, wherein each modulator is capable of generating a residue signal and a rough code corresponding to each sampled electrode of said plurality of electrodes, a multiplexer capable of receiving a plurality of residue signals generated by the plurality of modulators, a residue analog to digital converter capable of receiving a multiplexed residue signal from said multiplexer and outputting a digitized multiplexed residue signal, and a digital summation circuitry capable of receiving said digitized multiplexed residue signal and each rough code corresponding to each sample electrode, and outputting a plurality of output codes. a plurality of charge amplifiers (127, 820) and a plurality of sigma delta modulators or incremental modulators, wherein each charge amplifier and each modulator, comprised in said plurality of charge amplifiers and said plurality of modulators, respectively, corresponds to an electrode of said plurality of electrodes, wherein each modulator is capable of generating a residue signal and a rough code corresponding to each sampled electrode of said plurality of electrodes, a multiplexer capable of receiving a plurality of residue signals generated by the plurality of modulators, a residue analog to digital converter capable of receiving a multiplexed residue signal from said multiplexer and outputting a digitized multiplexed residue signal, and a digital summation circuitry capable of receiving said digitized multiplexed residue signal and each rough code corresponding to each sample electrode, and outputting a plurality of output codes.
A socket electrical contact comprising a body having a. a base; and b. at least two tines extending from the base, each tine containing two opposing edges (110, 112), a contact surface, and an exterior surface, and each of the edges (110, 112) of each tine defining a length from the base to a tip of each tine, respectively, wherein the lengths of the two opposing edges (110, 112) of each tine are different, such that at least two slots (122, 124) defined between the at least two tines have different lengths, wherein the base contains a seam, characterized in that, on each tine, the shorter edge is closer to the seam than the longer edge. a. a base; and b. at least two tines extending from the base, each tine containing two opposing edges (110, 112), a contact surface, and an exterior surface, and each of the edges (110, 112) of each tine defining a length from the base to a tip of each tine, respectively, wherein the lengths of the two opposing edges (110, 112) of each tine are different, such that at least two slots (122, 124) defined between the at least two tines have different lengths, wherein the base contains a seam, characterized in that, on each tine, the shorter edge is closer to the seam than the longer edge.
A method for controlling the power output of a photovoltaic system, the photovoltaic system including a photovoltaic generator that comprises a plurality of strings, each string comprising one or more photovoltaic cells, the method comprising: monitoring a voltage of a power sink (103, 403) associated with the photovoltaic system; determining whether the voltage of the power sink has decreased, and in response to the voltage of the power sink decreasing: calculating a percentage of the voltage of the power sink relative to a nominal level associated with the power sink, the nominal level representing a desired voltage level for the power sink; calculating a number of strings of the photovoltaic generator to be disconnected to decrease a photovoltaic voltage provided by the photovoltaic generator, wherein disconnecting the string prevents power generated by the string from reaching a power converter of the photovoltaic system that converts direct current power to alternating current power expected by the power sink; and disconnecting the calculated number of strings to adjust the photovoltaic voltage provided by the photovoltaic generator. monitoring a voltage of a power sink (103, 403) associated with the photovoltaic system; determining whether the voltage of the power sink has decreased, and in response to the voltage of the power sink decreasing: calculating a percentage of the voltage of the power sink relative to a nominal level associated with the power sink, the nominal level representing a desired voltage level for the power sink; calculating a number of strings of the photovoltaic generator to be disconnected to decrease a photovoltaic voltage provided by the photovoltaic generator, wherein disconnecting the string prevents power generated by the string from reaching a power converter of the photovoltaic system that converts direct current power to alternating current power expected by the power sink; and disconnecting the calculated number of strings to adjust the photovoltaic voltage provided by the photovoltaic generator. calculating a percentage of the voltage of the power sink relative to a nominal level associated with the power sink, the nominal level representing a desired voltage level for the power sink; calculating a number of strings of the photovoltaic generator to be disconnected to decrease a photovoltaic voltage provided by the photovoltaic generator, wherein disconnecting the string prevents power generated by the string from reaching a power converter of the photovoltaic system that converts direct current power to alternating current power expected by the power sink; and disconnecting the calculated number of strings to adjust the photovoltaic voltage provided by the photovoltaic generator.
A method for feeding a cored wire into molten metal, preferably molten steel, contained in a vessel for measuring the temperature of the molten metal, wherein the cored wire comprises a consumable optical fiber and a cover laterally surrounding the optical fiber and the cover includes an outer metal jacket formed of low carbon steel, the method comprising: - positioning the cored wire at a first position wherein a leading tip of the cored wire is proximate an entry point of the vessel, the entry point being above a surface of the molten metal, - feeding the cored wire at a first speed for a first duration from the first position to a second position wherein the leading tip of the cored wire is immersed within the molten metal and lies within a measuring plane, such that a leading tip of the optical fiber projects from the cover and is exposed to the molten metal; and - once the leading tip of the optical fiber projects from the cover and is exposed to the molten metal, feeding the cored wire at a second speed for a second duration to take a first measurement of the molten metal while the cored wire is being fed at the second speed, wherein the first speed is higher than the second speed. - positioning the cored wire at a first position wherein a leading tip of the cored wire is proximate an entry point of the vessel, the entry point being above a surface of the molten metal, - feeding the cored wire at a first speed for a first duration from the first position to a second position wherein the leading tip of the cored wire is immersed within the molten metal and lies within a measuring plane, such that a leading tip of the optical fiber projects from the cover and is exposed to the molten metal; and - once the leading tip of the optical fiber projects from the cover and is exposed to the molten metal, feeding the cored wire at a second speed for a second duration to take a first measurement of the molten metal while the cored wire is being fed at the second speed, wherein the first speed is higher than the second speed.
An operation method of an air conditioner comprising: performing a cooling operation in a power wind mode selected as a wind quantity mode and swinging a discharge vane within an angle range of a first set angle to a second set angle from a maximum opening angle as a first step (S1, S2, S3, S4); and performing the cooling operation in a strong wind mode having lower intensity of wind than the power wind mode selected as the wind quantity mode as a second step (S5, S6), the second step being executed after the first step (S1, S2, S3, S4), characterized in that the second step (S5, S6) comprises swinging the discharge vane within an angle range of a third set angle to a fourth set angle from the maximum opening angle, wherein the fourth set angle is greater than the second set angle, the second set angle is greater than the third set angle, and the third set angle is greater than the first set angle. performing a cooling operation in a power wind mode selected as a wind quantity mode and swinging a discharge vane within an angle range of a first set angle to a second set angle from a maximum opening angle as a first step (S1, S2, S3, S4); and performing the cooling operation in a strong wind mode having lower intensity of wind than the power wind mode selected as the wind quantity mode as a second step (S5, S6), the second step being executed after the first step (S1, S2, S3, S4), the second step (S5, S6) comprises swinging the discharge vane within an angle range of a third set angle to a fourth set angle from the maximum opening angle, wherein the fourth set angle is greater than the second set angle, the second set angle is greater than the third set angle, and the third set angle is greater than the first set angle.
A vacuum cleaner nozzle comprising a housing and a suction mouth arranged on an underside of the housing and extending in a transverse direction (y), which is limited in an operating direction (x) perpendicular to the transverse direction (y) by a front suction mouth edge and a rear suction mouth edge, wherein a slide-on slope is arranged on the underside of the housing in front of the front suction mouth edge in the operating direction (x), and wherein one or several support elements protrude downwards on the underside of the housing in at least one functional position and define a bearing plane, characterized in that a textile sealing assembly comprising at least one fiber pile of textile fibers, which protrudes downwards over the slide-on slope, is rigidly arranged on the slide-on slope and that the fiber pile ends at a distance (s) of between 0 mm and 4 mm from the bearing plane.
A compound selected from the group consisting of: - a compound having the formula VI: wherein: P 3 is a hydrogen atom or a carboxyl protecting group; A 1 is Cl, (1-4C alkyl), or cyclopropyl; A 2 is (1-4C alkyl), chloro, bromo or cyclopropyl; and R 7a, R 7b and R 8 are each independently hydrogen or methyl, - a compound having the formula: and - a compound having the formula IV: wherein: P 2 is a hydrogen atom or a carboxyl protecting group; Z 2 is -NH 2 or -C(=O)OH, or a reactive derivative thereof; A 1 is hydrogen, CN, Cl, F, Br, OMe, (1-4C alkyl) or cyclopropyl; A 2 is hydrogen, Cl, Br, F, (1-4C alkyl) or cyclopropyl; R 7a, R 7b and R 8 are each independently hydrogen or methyl; R 9 is hydrogen, methyl, fluoro or NO 2; and R 10 is hydrogen, methyl or fluoro. - a compound having the formula VI: wherein: P 3 is a hydrogen atom or a carboxyl protecting group; A 1 is Cl, (1-4C alkyl), or cyclopropyl; A 2 is (1-4C alkyl), chloro, bromo or cyclopropyl; and R 7a, R 7b and R 8 are each independently hydrogen or methyl, P 3 is a hydrogen atom or a carboxyl protecting group; A 1 is Cl, (1-4C alkyl), or cyclopropyl; A 2 is (1-4C alkyl), chloro, bromo or cyclopropyl; and R 7a, R 7b and R 8 are each independently hydrogen or methyl, - a compound having the formula: and - a compound having the formula IV: wherein: P 2 is a hydrogen atom or a carboxyl protecting group; Z 2 is -NH 2 or -C(=O)OH, or a reactive derivative thereof; A 1 is hydrogen, CN, Cl, F, Br, OMe, (1-4C alkyl) or cyclopropyl; A 2 is hydrogen, Cl, Br, F, (1-4C alkyl) or cyclopropyl; R 7a, R 7b and R 8 are each independently hydrogen or methyl; R 9 is hydrogen, methyl, fluoro or NO 2; and R 10 is hydrogen, methyl or fluoro. P 2 is a hydrogen atom or a carboxyl protecting group; Z 2 is -NH 2 or -C(=O)OH, or a reactive derivative thereof; A 1 is hydrogen, CN, Cl, F, Br, OMe, (1-4C alkyl) or cyclopropyl; A 2 is hydrogen, Cl, Br, F, (1-4C alkyl) or cyclopropyl; R 7a, R 7b and R 8 are each independently hydrogen or methyl; R 9 is hydrogen, methyl, fluoro or NO 2; and R 10 is hydrogen, methyl or fluoro.
A frustum-shaped rupture disk, comprising: a flange portion; a central truncated portion; an angled frustum portion extending inwardly from the flange portion to the central truncated portion; and a transition between the central truncated portion and the angled frustum portion; characterized in that the flange portion, the central truncated portion, the angled frustum portion, or the transition includes a shear-scored line of weakness configured to open when the rupture disk responds to a predetermined pressure. a flange portion; a central truncated portion; an angled frustum portion extending inwardly from the flange portion to the central truncated portion; and a transition between the central truncated portion and the angled frustum portion; characterized in that the flange portion, the central truncated portion, the angled frustum portion, or the transition includes a shear-scored line of weakness configured to open when the rupture disk responds to a predetermined pressure.
A folding box with a tamper-evident closure, comprising: • a polygonal bottom wall, • side walls (2, 3, 4, 5) that are connected at a lower boundary or at lower boundaries to a boundary or boundaries of the bottom wall via a folding line or folding lines and to each other via lateral folding lines, • upper dust flaps (7, 8) that are connected via folding lines to upper boundaries of two lateral side walls (2, 4), between which a front side wall is arranged, the upper boundary of which is a free edge, wherein the upper dust flaps have upper enlargements (9, 10) on the side of the front side wall next to the folding lines, • a top flap that is connected, at a boundary, to an upper insertion flap via a folding line and is connected, at an opposite rear boundary, via a folding line to the upper boundary of a rear side wall,, which is opposite the front side wall, • at least one scoring (15, 16) on the outside on the folding line between the top flap and the upper insertion flap, • at least one counterscoring (20, 21) on the inside of the top flap and/or the upper insertion flap that runs at least partially at a distance from the scoring (15, 16), • wherein the upper insertion flap has upper recessing boundaries (38, 39) on both sides, which are next to the at least one scoring (15, 16) and which engage under the upper enlargements (9, 10) of the upper dust flaps (7, 8) when the upper insertion flap is inserted between the upper dust flaps and the front side wall. • a polygonal bottom wall, • side walls (2, 3, 4, 5) that are connected at a lower boundary or at lower boundaries to a boundary or boundaries of the bottom wall via a folding line or folding lines and to each other via lateral folding lines, • upper dust flaps (7, 8) that are connected via folding lines to upper boundaries of two lateral side walls (2, 4), between which a front side wall is arranged, the upper boundary of which is a free edge, wherein the upper dust flaps have upper enlargements (9, 10) on the side of the front side wall next to the folding lines, • a top flap that is connected, at a boundary, to an upper insertion flap via a folding line and is connected, at an opposite rear boundary, via a folding line to the upper boundary of a rear side wall,, which is opposite the front side wall, • at least one scoring (15, 16) on the outside on the folding line between the top flap and the upper insertion flap, • at least one counterscoring (20, 21) on the inside of the top flap and/or the upper insertion flap that runs at least partially at a distance from the scoring (15, 16), • wherein the upper insertion flap has upper recessing boundaries (38, 39) on both sides, which are next to the at least one scoring (15, 16) and which engage under the upper enlargements (9, 10) of the upper dust flaps (7, 8) when the upper insertion flap is inserted between the upper dust flaps and the front side wall.
A discharge valve backer for a discharge reed valve comprising a valve plate with a discharge port and a discharge valve reed with a base end portion and a distal end portion, the distal end portion configured to shift via flexing to unblock and block the discharge port, the discharge valve backer having: a first surface; a second surface opposite the first surface; a distal portion; a base portion configured for mounting to the valve plate; and at least one arm connecting the base portion to the distal portion, characterized in that: the discharge valve backer is configured to limit the range of flexing of the discharge valve reed; the first surface is configured to engage the discharge valve reed; the distal portion is configured for engaging the distal portion of the discharge valve reed; an arm underside is transversely convex along a portion of the at least one arm; and the at least one arm is wider near the base portion than near the distal portion. a first surface; a second surface opposite the first surface; a distal portion; a base portion configured for mounting to the valve plate; and at least one arm connecting the base portion to the distal portion, the discharge valve backer is configured to limit the range of flexing of the discharge valve reed; the first surface is configured to engage the discharge valve reed; the distal portion is configured for engaging the distal portion of the discharge valve reed; an arm underside is transversely convex along a portion of the at least one arm; and the at least one arm is wider near the base portion than near the distal portion.
A fixation structure for securing a patient interface on a patient's face, the fixation structure comprising: a first edge; a second edge opposing the first edge, such that in use on the patient's face the second edge is farther away than the first edge from the patient's nose or mouth; and opposing third and fourth edges (308A, 308B) extending between the first and second edges (304, 306), wherein portions of the third edge that are closer to the first and second edges (304, 306) project farther from a centerline or center portion of the fixation structure than do portions of the third edge that are farther from the first and second edges (304, 306), wherein portions of the third edge that are closer to the second edge project farther from the centerline or center portion of the fixation structure than do portions of the third edge that are closer to the first edge; wherein the third edge and/or the fourth edge comprise a concave curve; wherein the fourth edge comprises a concave curve shaped to match a shape of an under-eye region of the patient; and wherein the centerline or center portion is midway between the third and fourth edges, and wherein the third edge and the fourth edge are symmetrical to each other about the centerline or center portion. a first edge; a second edge opposing the first edge, such that in use on the patient's face the second edge is farther away than the first edge from the patient's nose or mouth; and opposing third and fourth edges (308A, 308B) extending between the first and second edges (304, 306), wherein portions of the third edge that are closer to the first and second edges (304, 306) project farther from a centerline or center portion of the fixation structure than do portions of the third edge that are farther from the first and second edges (304, 306), wherein portions of the third edge that are closer to the second edge project farther from the centerline or center portion of the fixation structure than do portions of the third edge that are closer to the first edge; wherein the third edge and/or the fourth edge comprise a concave curve; wherein the fourth edge comprises a concave curve shaped to match a shape of an under-eye region of the patient; and wherein the centerline or center portion is midway between the third and fourth edges, and wherein the third edge and the fourth edge are symmetrical to each other about the centerline or center portion.