mhurhangee/ep-ind-claims huggingface dataset:
Heat exchanger (10, 40, 70) allowing the exchange of heat between a first and a second fluid, the said exchanger (10, 40, 70) comprising: - a casing (11, 12; 41, 42; 71, 72) and - an exchange core bundle (13, 43, 73) positioned inside the said casing (11, 12; 41, 42; 71, 72), - in which the exchange core bundle (13, 43, 73) comprises: - a main surface comprising a main width and formed by a plurality of tubes designed to guide the first fluid inside these tubes, - a first-fluid inlet (21, 51) leading toward a first-fluid outlet (22, 52) and allowing the second fluid to be guided outside these tubes, - a second-fluid inlet (31, 61) leading towards a second-fluid outlet (33, 62), - in which the tubes are, at least at a first end (131, 132), assembled to form a secondary surface comprising a secondary width less than the main width for connection to the inlet (21, 51) and/or the outlet (22, 52) for the first fluid, - in which the secondary surface at the first end (131, 132) of the tubes is formed to create a space between the casing (11, 12; 41, 42; 71, 72) and the exterior face of the secondary surface, which space is connected to the inlet (31, 61) and/or the outlet (32, 62) for the second fluid. - a casing (11, 12; 41, 42; 71, 72) and - an exchange core bundle (13, 43, 73) positioned inside the said casing (11, 12; 41, 42; 71, 72), - in which the exchange core bundle (13, 43, 73) comprises: - a main surface comprising a main width and formed by a plurality of tubes designed to guide the first fluid inside these tubes, - a first-fluid inlet (21, 51) leading toward a first-fluid outlet (22, 52) and allowing the second fluid to be guided outside these tubes, - a second-fluid inlet (31, 61) leading towards a second-fluid outlet (33, 62), - a main surface comprising a main width and formed by a plurality of tubes designed to guide the first fluid inside these tubes, - a first-fluid inlet (21, 51) leading toward a first-fluid outlet (22, 52) and allowing the second fluid to be guided outside these tubes, - a second-fluid inlet (31, 61) leading towards a second-fluid outlet (33, 62), - in which the tubes are, at least at a first end (131, 132), assembled to form a secondary surface comprising a secondary width less than the main width for connection to the inlet (21, 51) and/or the outlet (22, 52) for the first fluid, - in which the secondary surface at the first end (131, 132) of the tubes is formed to create a space between the casing (11, 12; 41, 42; 71, 72) and the exterior face of the secondary surface, which space is connected to the inlet (31, 61) and/or the outlet (32, 62) for the second fluid.
Method for operating a hydraulic pump of a motor vehicle brake system, wherein the hydraulic pump is operated by means of an electric machine (4, 13-1, 13-2, 13-n) which is actuated in a pulse-modulated fashion, and a current measuring signal and/or a voltage measuring signal of the electric machine (4, 13-1, 13-2, 13-n) and/or of a load circuit for supplying the electric machine (4, 13-1, 13-2, 13-n) is detected, characterized in that the position and/or change in position of the hydraulic pump are/is determined on the basis of the current measuring signal and/or of the voltage measuring signal as well as of at least one frequency (f) of the current measuring signal and/or of the voltage measuring signal which has an essentially integral division ratio with respect to a commutator frequency of the electric machine (4, 13-1, 13-2, 13-n) and/or is used to actuate the electric machine.
Method for operating a sensor for detecting at least one portion of a measurement gas component with bound oxygen in a measurement gas, in particular in an exhaust gas of an internal combustion engine, comprising a sensor element, wherein the sensor element has a first pump cell which has an outer pump electrode and an inner pump electrode and is present at a first cavity connected to the measurement gas, a reference cell which has a Nernst electrode and a reference electrode and is present at a reference gas space, and a second pump cell which has a pump electrode and a counter-electrode and is present at a second cavity, wherein the counter-electrode of the second pump cell is in the reference gas space, wherein an electronic control device, which has at least a first separate terminal for the first pump cell and a second separate terminal for the second pump cell, is connected to the sensor element, wherein the first pump cell is connected to the first separate terminal by means of an electrically conductive connection, wherein the second pump cell is connected to the second separate terminal by means of an electrically conductive connection, wherein a measurement resistor is provided in the electrically conductive connection which connects the second pump cell to the second separate terminal, wherein the control device is used to carry out a current and/or voltage excitation of the second pump cell in order to generate a measurement signal at the measurement resistor, wherein a predetermined electrical voltage (U P2) is applied to the second pump cell, wherein a voltage excitation of the second pump cell is carried out, wherein the predetermined electrical voltage (U P2) is increased for a first predetermined time and the predetermined electrical voltage (U P2) is reduced for a second predetermined time, wherein an integral of the applied electrical voltage has a value of zero for the first predetermined time and the second predetermined time, wherein the electrically conductive connection which connects the second pump cell to the second separate terminal is identified as intact if the measurement signal has a value not equal to zero for the first predetermined time and the second predetermined time and is identified as defective if the measurement signal has a value of zero for the first predetermined time and the second predetermined time.
A water-based ink for ink-jet printing on a low-liquid absorbing printing medium, comprising a pigment, a polymer dispersant, a water-soluble organic solvent and water, in which: the water-soluble organic solvent comprises diethylene glycol monoisopropyl ether and at least one solvent selected from the group consisting of an alkanediol having not less than 4 and not more than 6 carbon atoms and a cyclic amide compound; the alkanediol having not less than 4 and not more than 6 carbon atoms is at least one compound selected from the group consisting of 1,2-butanediol, 1,4-butanediol, 1,6-hexanediol and dipropylene glycol; the cyclic amide compound is at least one compound selected from the group consisting of 2-pyrrolidone, N-methyl-2-pyrrolidone, N-ethyl-2-pyrrolidone, N-vinyl-2-pyrrolidone, N-butyl-2-pyrrolidone and 5-methyl-2-pyrrolidone; and a content of the diethylene glycol monoisopropyl ether in the water-soluble organic solvent is not less than 65% by mass and not more than 95% by mass. the water-soluble organic solvent comprises diethylene glycol monoisopropyl ether and at least one solvent selected from the group consisting of an alkanediol having not less than 4 and not more than 6 carbon atoms and a cyclic amide compound; the alkanediol having not less than 4 and not more than 6 carbon atoms is at least one compound selected from the group consisting of 1,2-butanediol, 1,4-butanediol, 1,6-hexanediol and dipropylene glycol; the cyclic amide compound is at least one compound selected from the group consisting of 2-pyrrolidone, N-methyl-2-pyrrolidone, N-ethyl-2-pyrrolidone, N-vinyl-2-pyrrolidone, N-butyl-2-pyrrolidone and 5-methyl-2-pyrrolidone; and a content of the diethylene glycol monoisopropyl ether in the water-soluble organic solvent is not less than 65% by mass and not more than 95% by mass.
A flexible array probe for use with a non-destructive inspection operation, said probe comprising: a plurality of probe fins (101; 1101), coupled together, said plurality comprising a first probe fin and a last probe fin; a plurality of probe elements, each probe element fixed to one of the plurality of Probe fins (101; 1101); characterized by comprising: a plurality of pivot mechanisms (104; 1102) situated between each of the probe fins, allowing probe elements fixed to the probe fins (101; 1101) to rotate in exactly one dimension; at least one wire element (105; 1106) having a first end and a second end, said wire element passing through the plurality of probe fins, the probe fins being arranged adjacent one another along the wire element; at least one securement element (504; 1108) affixing the first end of the wire element to at least one probe fin; and at least one securement element (504; 1105) affixing the second end of the wire element to at least one probe fin. a plurality of probe fins (101; 1101), coupled together, said plurality comprising a first probe fin and a last probe fin; a plurality of probe elements, each probe element fixed to one of the plurality of Probe fins (101; 1101); a plurality of pivot mechanisms (104; 1102) situated between each of the probe fins, allowing probe elements fixed to the probe fins (101; 1101) to rotate in exactly one dimension; at least one wire element (105; 1106) having a first end and a second end, said wire element passing through the plurality of probe fins, the probe fins being arranged adjacent one another along the wire element; at least one securement element (504; 1108) affixing the first end of the wire element to at least one probe fin; and at least one securement element (504; 1105) affixing the second end of the wire element to at least one probe fin.
Use of a device for fixing lines in channels (16, 16a) of tools, comprising at least one clamping element (26, 26a, b, c, d, e) for fixing at least one line in a channel (16, 16a) which extends from a surface of a tool body (12, 12a), the clamping element (26, 26a-e) being oversized with respect to a clear width (L 1) of the channel (16, 16a) and being used for fixing in the channel (16, 16a) under the effect of the spring tension, characterized in that the clamping element (26, 26a-e) is formed as a spring wire which is bent in such a way that a virtual first side edge and a virtual second side edge parallel thereto are formed, between which a sequence of bends (32, 34) extends alternately back and forth, wherein the two mutually parallel virtual side edges (28, 30) are respectively defined by the bends (32, 34), and that the clamping element (26, 26a-e) is used for engaging in a longitudinal groove (40, 41) on at least one longitudinal side (18, 20) of the channel (16, 16a).
Bandwidth extension decoder (500, 600) for providing a bandwidth extended audio signal based on an input audio signal and a parameter signal, wherein the parameter signal comprises an indication of an offset frequency and an indication of a power density parameter, the bandwidth extension decoder comprising: a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal; an output interface configured to provide the bandwidth extended audio signal; and a core decoder and a parameter extraction unit, wherein the core decoder is connected to the patch generator and the combiner, wherein the parameter extraction unit is connected to the patch generator and to the output interface, wherein the patch generator is connected to the combiner, and wherein the combiner is connected to the output interface, wherein the input audio signal comprises an upper cutoff frequency equal to a crossover frequency of the core decoder, or wherein the crossover frequency is constant or is variable over time. a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal; an output interface configured to provide the bandwidth extended audio signal; and a core decoder and a parameter extraction unit, wherein the core decoder is connected to the patch generator and the combiner, wherein the parameter extraction unit is connected to the patch generator and to the output interface, wherein the patch generator is connected to the combiner, and wherein the combiner is connected to the output interface, wherein the input audio signal comprises an upper cutoff frequency equal to a crossover frequency of the core decoder, or wherein the crossover frequency is constant or is variable over time.
Grating structure for a diffractive optical unit, having a plurality of grating lines, wherein each grating line (30a to 30n) is approximated by a plurality of successive segments (24, 26; 36), wherein longitudinal axes of the segments (24, 26; 36) each have an angle relative to a first coordinate axis of a reference coordinate system, wherein a first section of a grating line is approximated by a first group of segments and a second section of the grating line adjoining the first section is approximated by a second group of segments, characterized in that the longitudinal axes of a main portion of the segments of the first group have a first predetermined angle (φ1) relative to the first coordinate axis of the reference coordinate system and the longitudinal axes of a main portion of the segments of the second group have a second predetermined angle (φ2), different from the first predetermined angle (φ1), relative to the first coordinate axis of the reference coordinate system, and in that one or more of the angles of the longitudinal axes of the segments of the first group and/or one or more of the angles of the longitudinal axes of the segments of the second group are each randomly selected from the totality of at least the first predetermined angle (φ1) and the second predetermined angle (φ2). having a plurality of grating lines, wherein each grating line (30a to 30n) is approximated by a plurality of successive segments (24, 26; 36), wherein longitudinal axes of the segments (24, 26; 36) each have an angle relative to a first coordinate axis of a reference coordinate system, wherein a first section of a grating line is approximated by a first group of segments and a second section of the grating line adjoining the first section is approximated by a second group of segments, characterized in that the longitudinal axes of a main portion of the segments of the first group have a first predetermined angle (φ1) relative to the first coordinate axis of the reference coordinate system and the longitudinal axes of a main portion of the segments of the second group have a second predetermined angle (φ2), different from the first predetermined angle (φ1), relative to the first coordinate axis of the reference coordinate system, and in that one or more of the angles of the longitudinal axes of the segments of the first group and/or one or more of the angles of the longitudinal axes of the segments of the second group are each randomly selected from the totality of at least the first predetermined angle (φ1) and the second predetermined angle (φ2).
Method of spraying in plant protection for controlling and eliminating fungal, yeast attacks, bacterial and viral infections and insect infestations on plants by means of oxidative radicals produced electrolytically in salt-containing water, UV-C light irradiation and with the aid of air-assisted electrostatic spray technology, wherein the oxidative radicals produced electrolytically in salt-containing water, which are produced in an electrolysis cell with diamond-coated electrodes and/or in a cylinder electrolysis cell with diaphragm and platinum-coated electrodes or combined in both, are used as biocide, wherein the biocidal aqueous solution of oxidative radicals is sprayed on to the plants to be treated with the aid of air-assisted electrostatic spray technology with simultaneous direct UV-C light irradiation.
A method for connecting components (1, 3), having the following steps: • providing a first component, • fixing the first component in space, with the exact location of the first component in space not needing to be known or being unknown, • ascertaining the exact location of the first component in space by means of a position recognition means which generates location information which corresponds to the location of the first component, and the method is characterised by the following steps: • attaching or forming at least one first fixing element to or on the first component by means of an electronically controlled means which attaches or forms the at least one first fixing element using the ascertained location information in a specified position relative to the first component, • fixing a second component to the first component, with a second fixing element provided on the second component forming a releasable connection with the first fixing element. • providing a first component, • fixing the first component in space, with the exact location of the first component in space not needing to be known or being unknown, • ascertaining the exact location of the first component in space by means of a position recognition means which generates location information which corresponds to the location of the first component, • attaching or forming at least one first fixing element to or on the first component by means of an electronically controlled means which attaches or forms the at least one first fixing element using the ascertained location information in a specified position relative to the first component, • fixing a second component to the first component, with a second fixing element provided on the second component forming a releasable connection with the first fixing element.
A sensor comprising: an elongated and hollow housing having a first opening (110P1) formed in a longitudinal direction of the housing, and a second opening (110P2) formed at one end thereof; a cap (130, 140) disposed in the second opening (110P2); an elongated cover covering the first opening (110P1) and having one end coupled to the cap (130, 140); a first receiving groove (210, 220) formed on the housing at a position adjacent to the first opening (110P1) and facing the cover; a second receiving groove (230, 240) formed on the cap (130, 140) at a position facing the cover; a front sealing member inserted into the first receiving groove (210, 220) and the second receiving groove (230, 240), and coming into contact with the cover; a groove (300, 400) formed on the cap (130, 140) at a position adjacent to the second opening (110P2) and facing one end of the housing; and a side sealing member (160T, 180T) inserted into the groove (300, 400) and coming into contact with the one end of the housing, wherein the front sealing member has: a vertical portion (170L1V, 170L2V) coming into contact with a side surface of the cover; and a horizontal portion (170L1H, 170L2H) extending from the vertical portion (170L1V, 170L2V) and coming into contact with an inner surface of the cover. an elongated and hollow housing having a first opening (110P1) formed in a longitudinal direction of the housing, and a second opening (110P2) formed at one end thereof; a cap (130, 140) disposed in the second opening (110P2); an elongated cover covering the first opening (110P1) and having one end coupled to the cap (130, 140); a first receiving groove (210, 220) formed on the housing at a position adjacent to the first opening (110P1) and facing the cover; a second receiving groove (230, 240) formed on the cap (130, 140) at a position facing the cover; a front sealing member inserted into the first receiving groove (210, 220) and the second receiving groove (230, 240), and coming into contact with the cover; a groove (300, 400) formed on the cap (130, 140) at a position adjacent to the second opening (110P2) and facing one end of the housing; and a side sealing member (160T, 180T) inserted into the groove (300, 400) and coming into contact with the one end of the housing, wherein the front sealing member has: a vertical portion (170L1V, 170L2V) coming into contact with a side surface of the cover; and a horizontal portion (170L1H, 170L2H) extending from the vertical portion (170L1V, 170L2V) and coming into contact with an inner surface of the cover. a vertical portion (170L1V, 170L2V) coming into contact with a side surface of the cover; and a horizontal portion (170L1H, 170L2H) extending from the vertical portion (170L1V, 170L2V) and coming into contact with an inner surface of the cover.
A composition for use in a method for treating cancer in a mammal, wherein said method comprises: (a) administering an USP7 polypeptide inhibitor to said mammal, and (b) administering a CD340 polypeptide inhibitor to said mammal, wherein the number of cancer cells within said mammal is reduced to a greater level than the level observed in a comparable mammal administered said CD340 polypeptide inhibitor in the absence of administration of said USP7 polypeptide inhibitor. (a) administering an USP7 polypeptide inhibitor to said mammal, and (b) administering a CD340 polypeptide inhibitor to said mammal, wherein the number of cancer cells within said mammal is reduced to a greater level than the level observed in a comparable mammal administered said CD340 polypeptide inhibitor in the absence of administration of said USP7 polypeptide inhibitor.
A process for preparation of a tea product from tea leaf characterized in that the tea leaf comprises at least 40% by weight of tea material which is harvested during the rejuvenation stage of tea bush after pruning with shoot length of 6-16 cm and having 750 - 1200 shoots per kg of the tea leaf.