mhurhangee/ep-ind-claims huggingface dataset:
Method for moving a material web with conveyor means (3, 13) which are able to be driven by at least one drive unit, having the following method steps: - determining torque actual value and power actual value, which the at least one drive unit uses to accelerate the conveyor means (3, 13), - adapting the current setpoint values, which are specified at the drive unit, if the determined torque actual value has a lower value than the specifiable torque or the determined power actual value is lower than the specifiable power, - specifying current setpoint values at the at least one drive unit such that - the conveyor means (3, 13) are accelerated by the at least one drive unit with a specifiable torque, if a power required for this is lower than a specifiable power of the at least one drive unit, - the conveyor means (3, 13) are accelerated by the at least one drive unit with the specifiable power, if a torque required for this has a lower value than the specifiable torque of the at least one drive unit, - terminating the acceleration procedure once a desired movement of the material web has been achieved. - determining torque actual value and power actual value, which the at least one drive unit uses to accelerate the conveyor means (3, 13), - adapting the current setpoint values, which are specified at the drive unit, if the determined torque actual value has a lower value than the specifiable torque or the determined power actual value is lower than the specifiable power, - specifying current setpoint values at the at least one drive unit such that - the conveyor means (3, 13) are accelerated by the at least one drive unit with a specifiable torque, if a power required for this is lower than a specifiable power of the at least one drive unit, - the conveyor means (3, 13) are accelerated by the at least one drive unit with the specifiable power, if a torque required for this has a lower value than the specifiable torque of the at least one drive unit, - the conveyor means (3, 13) are accelerated by the at least one drive unit with a specifiable torque, if a power required for this is lower than a specifiable power of the at least one drive unit, - the conveyor means (3, 13) are accelerated by the at least one drive unit with the specifiable power, if a torque required for this has a lower value than the specifiable torque of the at least one drive unit, - terminating the acceleration procedure once a desired movement of the material web has been achieved.
An impact copolymer comprising a polypropylene comprising at least 50 mol% propylene, and having a molecular weight distribution (Mw MALLS /Mn) greater than 10, a branching index (g') of less than 0.97, and a melt strength greater than 40 cN determined using an extensional rheometer at 190°C, and within the range from 0.5 to 50 wt.% of an elastomer, by weight of the impact copolymer.
A device for the autonomous provision of test sequences for a JTAG interface of predetermined different test objects, containing a test computer in which test plans and all data of test objects to be tested are contained, and a JTAG controller for transmitting the specific test sequences of a current test object to the JTAG interface, wherein - the test computer is contained as an embedded computer in a compact test instrument, wherein the test computer has an operating system and basic software for autonomous configuration and starting of the test instrument as well as a web service interface, - the embedded test computer has its own utility program which is configured to act like a web service with http commands, to control test software for implementing the test plans of the test objects and to generate information in web design, and - the test instrument has a local network connection for transmitting dedicated control commands between the JTAG controller and the embedded test computer, and there is a connection from an external test terminal to the local network connection in order to form the external test terminal as a user interface of the embedded test computer. - the test computer is contained as an embedded computer in a compact test instrument, wherein the test computer has an operating system and basic software for autonomous configuration and starting of the test instrument as well as a web service interface, - the embedded test computer has its own utility program which is configured to act like a web service with http commands, to control test software for implementing the test plans of the test objects and to generate information in web design, and - the test instrument has a local network connection for transmitting dedicated control commands between the JTAG controller and the embedded test computer, and there is a connection from an external test terminal to the local network connection in order to form the external test terminal as a user interface of the embedded test computer.
A method of diagnosing Non-Alcoholic Steatohepatitis (NASH) and/or the hepatic fibrosis status of a subject, wherein the method comprises: measuring, in a sample obtained from a subject, levels of at least three biomarkers being a pro-inflammatory cytokine, a chemokine and a glycosaminoglycan contributing to cell-adhesion and tissue modeling; combining the levels of said at least three biomarkers measured in step in a mathematical model; and determining whether the subject is afflicted with NASH and/or determining its hepatic fibrosis status, said at least three biomarkers comprising IL-8, CXCL10 and Hyaluronic acid. measuring, in a sample obtained from a subject, levels of at least three biomarkers being a pro-inflammatory cytokine, a chemokine and a glycosaminoglycan contributing to cell-adhesion and tissue modeling; combining the levels of said at least three biomarkers measured in step in a mathematical model; and determining whether the subject is afflicted with NASH and/or determining its hepatic fibrosis status,
A detector comprising: a probe comprising a radiation energy receiving temperature sensor for receiving radiation energy from the skin and for converting the radiation energy into an electrical signal, the sensor being disposed on a protruding support structure housed on a patch, the protruding support structure being for contacting the skin at the brain tunnel for placement of the radiation energy receiving temperature sensor at the brain tunnel; characterised in that the patch is substantially v or tick-shaped.
Method for decoupling the position of an adjustment ring for compensating for wear of the friction linings of a friction clutch from the position of a drive pawl for detecting the wear during mounting of the friction clutch, the drive pawl at the same time driving the adjustment ring via a spindle drive which has a spindle, a spindle nut which is arranged on the spindle for the transmission of force and/or torque to the adjustment ring, and a pinion, by means of which the drive pawl rotates the spindle, characterized in that the decoupling is realized by way of a play (Δφ) between the pinion and the spindle with regard to the said rotation.
A mist-generating device (100, 100a, 100b, 100c, 100d), comprising: a droplet generating unit (300, 300a, 300b, 300c, 300d) configured to generate, in a third liquid, a functional droplet including a first liquid that is spherical and a second liquid that covers an entirety of the first liquid and has a volatility lower than a volatility of the first liquid; and a mist-generating unit (400, 401, 402) configured to generate a multilayer mist (M, M1, M2) obtained by atomizing the third liquid containing the functional droplet into a mist, wherein the droplet generating unit (300, 300a, 300b, 300c, 300d) is a microchannel chip (301, 301a, 302, 303) including: a first liquid channel (311, 311a, 311b) through which the first liquid passes; a second liquid channel (321, 321a, 321b) through which the second liquid passes; a mixing channel (322, 322a) connected to the first liquid channel (311, 311a, 311b) and the second liquid channel (321, 321a, 321b), for covering the entirety of the first liquid with the second liquid; and a third liquid channel (331, 331a, 331b, 331c, 331d) connected to the mixing channel (322, 322a), for covering an entirety of the first liquid and the second liquid with the third liquid. a droplet generating unit (300, 300a, 300b, 300c, 300d) configured to generate, in a third liquid, a functional droplet including a first liquid that is spherical and a second liquid that covers an entirety of the first liquid and has a volatility lower than a volatility of the first liquid; and a mist-generating unit (400, 401, 402) configured to generate a multilayer mist (M, M1, M2) obtained by atomizing the third liquid containing the functional droplet into a mist, wherein the droplet generating unit (300, 300a, 300b, 300c, 300d) is a microchannel chip (301, 301a, 302, 303) including: a first liquid channel (311, 311a, 311b) through which the first liquid passes; a second liquid channel (321, 321a, 321b) through which the second liquid passes; a mixing channel (322, 322a) connected to the first liquid channel (311, 311a, 311b) and the second liquid channel (321, 321a, 321b), for covering the entirety of the first liquid with the second liquid; and a third liquid channel (331, 331a, 331b, 331c, 331d) connected to the mixing channel (322, 322a), for covering an entirety of the first liquid and the second liquid with the third liquid. a first liquid channel (311, 311a, 311b) through which the first liquid passes; a second liquid channel (321, 321a, 321b) through which the second liquid passes; a mixing channel (322, 322a) connected to the first liquid channel (311, 311a, 311b) and the second liquid channel (321, 321a, 321b), for covering the entirety of the first liquid with the second liquid; and a third liquid channel (331, 331a, 331b, 331c, 331d) connected to the mixing channel (322, 322a), for covering an entirety of the first liquid and the second liquid with the third liquid.
Apparatus for the artificial weathering or light fastness testing of samples, comprising a weathering chamber in which a UV radiation device is arranged, and in which at least one sample can be arranged in a sample plane spaced from the UV radiation device, wherein the UV radiation device contains a plurality of UV light-emitting diodes (UV LEDs) (31.n) containing three or more classes of UV LEDs (31.n) of different emission bands which are selected spectrally in such a way that a spectral distribution can be obtained in the sample plane with which the short-wave rising edge of the UV component of the solar spectrum can be simulated, wherein the UV LEDs (31.n) are not evenly distributed spatially but are combined in groups of 3 or more UV LEDs (31.n) each, the groups being formed identically, wherein the groups are spatially regularly distributed on a flat surface and arranged separately from one another, and at least one UV LED (31.n) from each of the different emission bands is represented in each group, and wherein the distance of the UV LEDs (31.n) from one another within a group is determined as an average value of the center point distances of respectively directly adjacent UV LEDs (31.n) and this distance is smaller than the distance between the UV radiation device and the sample plane. a weathering chamber in which a UV radiation device is arranged, and in which at least one sample can be arranged in a sample plane spaced from the UV radiation device, wherein the UV radiation device contains a plurality of UV light-emitting diodes (UV LEDs) (31.n) containing three or more classes of UV LEDs (31.n) of different emission bands which are selected spectrally in such a way that a spectral distribution can be obtained in the sample plane with which the short-wave rising edge of the UV component of the solar spectrum can be simulated, wherein the UV LEDs (31.n) are not evenly distributed spatially but are combined in groups of 3 or more UV LEDs (31.n) each, the groups being formed identically, wherein the groups are spatially regularly distributed on a flat surface and arranged separately from one another, and at least one UV LED (31.n) from each of the different emission bands is represented in each group, and wherein the distance of the UV LEDs (31.n) from one another within a group is determined as an average value of the center point distances of respectively directly adjacent UV LEDs (31.n) and this distance is smaller than the distance between the UV radiation device and the sample plane.
Method of production of a synthetic gas by electrolysis of a particular electrolyte composed of a solution of demineralized water (H2O), potassium hydroxide or sodium hydroxide (NaOH), and ascorbic acid (C6H806), said solution composed of, for each 1000 ml of demineralized water, from 10 to 50 g/l of potassium hydroxide or sodium hydroxide and from 20 to 100 g/l of ascorbic acid.
A resource scheduling indication method, comprising: determining, by a network device, one piece of control information, wherein the one piece of control information comprises resource scheduling indication information of a plurality of pieces of data on different carriers, and the resource scheduling indication information is used to perform resource scheduling on the plurality of pieces of data; and sending, by the network device, the one piece of control information, to a terminal device. wherein the resource scheduling indication information comprises hybrid automatic repeat request, HARQ, process information, the HARQ process information comprises second indication information, characterized in that the second indication information indicates a HARQ process identifier of one of the plurality of pieces of data, and a HARQ process identifier of another one of the plurality of pieces of data is obtained through calculation based on the HARQ process identifier of the one of the plurality of pieces of data. determining, by a network device, one piece of control information, wherein the one piece of control information comprises resource scheduling indication information of a plurality of pieces of data on different carriers, and the resource scheduling indication information is used to perform resource scheduling on the plurality of pieces of data; and sending, by the network device, the one piece of control information, to a terminal device. wherein the resource scheduling indication information comprises hybrid automatic repeat request, HARQ, process information, the HARQ process information comprises second indication information, characterized in that the second indication information indicates a HARQ process identifier of one of the plurality of pieces of data, and a HARQ process identifier of another one of the plurality of pieces of data is obtained through calculation based on the HARQ process identifier of the one of the plurality of pieces of data.
A tumor antigen for use as a cancer vaccine comprising as an active ingredient a protein having an amino acid sequence as set forth in SEQ ID NO:2, or a peptide having 7 to 30 contiguous amino acids in the amino acid sequence as set forth in SEQ ID NO:1, said peptide containing an anchor amino acid required for binding to the MHC molecule, or a peptide having 7 to 30 contiguous amino acids in the amino acid sequence as set forth in SEQ ID NO:2, said peptide containing an anchor amino acid required for binding to the MHC molecule.
Mop base including an anti-detachment and a cleaning cloth with tabs, connected with each transverse side of the cloth, where said anti-detachment device of a tab of the cloth is joined to the mop base and arranged near the transverse edges of the base, is fixed to the base and a cleaning cloth and configured as a rotated U or open C, whose lower horizontal rod is solidly joined to the base and creates a housing with a slot for said tab on a transverse side of the cleaning cloth, is open on at least on the input side, defined as an inlet mouth, whose opening, at least around the connection between said device and said tab, is slightly greater than the thickness of said tab, allowing said tab to freely and easily enter into said slotted housing through said open side of its inlet, where said rotated U or open C housing overlaps with its upper horizontal rod at least a limited portion of the extension of the tab, along the connection edge with said mop limiting relative movements perpendicular to the insertion of the tab inside said anti-detachment device.
A fence assembly for a table saw, the fence assembly comprising: a primary fence including a first elongated body having a first body first side, a first body second side, a first body top side, and a first body bottom side, a first height measured between the first body top side and the first body bottom side, and a secondary fence including a second elongated body having a second body top side and a second body bottom side, a second height measured between the second body top side and the second body bottom side, wherein the second height is less than the first height; and wherein the secondary fence is pivotally mounted to the primary fence and pivotable between a deployed position adjacent one of the first body first side or the first body second side, and a stowed position adjacent the other of the first body first side or the first body second side, characterised in that the primary fence comprises a threaded bore on each of the first body first side and the first body second side, and the secondary fence comprises a threaded shaft, the threaded shaft being selectively received by one of the threaded bores in the primary fence. a primary fence including a first elongated body having a first body first side, a first body second side, a first body top side, and a first body bottom side, a first height measured between the first body top side and the first body bottom side, and a secondary fence including a second elongated body having a second body top side and a second body bottom side, a second height measured between the second body top side and the second body bottom side, wherein the second height is less than the first height; and wherein the secondary fence is pivotally mounted to the primary fence and pivotable between a deployed position adjacent one of the first body first side or the first body second side, and a stowed position adjacent the other of the first body first side or the first body second side, characterised in that the primary fence comprises a threaded bore on each of the first body first side and the first body second side, and the secondary fence comprises a threaded shaft, the threaded shaft being selectively received by one of the threaded bores in the primary fence.
A non-volatile memory device (500, 700, 800, 900, 1000, 1100, 1200, 1300, 1400, 1500, 1600, 1800, 1900, 2000, 2100, 2200, 2400, or 2500) comprising: an array of split gate flash non-volatile memory cells (110, 210, or 310) arranged in rows and columns, each memory cell comprising a floating gate (124, 224, or 324), a bit line terminal (120, 220, or 320) for connecting to a bit line, a word line terminal (122, 222, or 322), a source line terminal (114, 214, or 314), and a word line select transistor (532 and 533, 811 and 812, 911, 1411, 1541, 1632 and 1633, 2032, 2111, or 2232 and 2233) coupled between a word line and the word line terminals of a byte of cells in a row and configured to provide a word line signal to the word line terminals of the byte of cells in the row only when a word line select line is asserted; a source line select transistor (551 and 561, 921 and 931, 1021 and 1031, 1111 and 1121, 1441, 1511, 1651 and 1661, 1911 and 1921, 2011, 2251 and 2261, and 2511 and 2521) coupled between a source line and the source line terminals of the byte of cells in the row and configured to provide a source line signal to the source line terminals of the byte of cells in the row only when the word line is asserted; wherein the byte of cells in the row are erased when the word line select line and word line are asserted without any other memory cells in the array being concurrently erased. an array of split gate flash non-volatile memory cells (110, 210, or 310) arranged in rows and columns, each memory cell comprising a floating gate (124, 224, or 324), a bit line terminal (120, 220, or 320) for connecting to a bit line, a word line terminal (122, 222, or 322), a source line terminal (114, 214, or 314), and a word line select transistor (532 and 533, 811 and 812, 911, 1411, 1541, 1632 and 1633, 2032, 2111, or 2232 and 2233) coupled between a word line and the word line terminals of a byte of cells in a row and configured to provide a word line signal to the word line terminals of the byte of cells in the row only when a word line select line is asserted; a source line select transistor (551 and 561, 921 and 931, 1021 and 1031, 1111 and 1121, 1441, 1511, 1651 and 1661, 1911 and 1921, 2011, 2251 and 2261, and 2511 and 2521) coupled between a source line and the source line terminals of the byte of cells in the row and configured to provide a source line signal to the source line terminals of the byte of cells in the row only when the word line is asserted; wherein the byte of cells in the row are erased when the word line select line and word line are asserted without any other memory cells in the array being concurrently erased.
A method of determining blade tip timing measurement uncertainty comprising: a) measuring time of arrival of each of a set of blades at each of a reference set of stationary probes; b) deriving a reference blade tip parameter from the measurements and the position of each of the probes; c) calculating a reference condition number from the position of each of the probes and each targeted engine order; d) calculating a reference mean condition number from the reference condition numbers; e) defining an integer subset x and determining all combinations of x probes; f) for each combination, calculating a condition number from the position of each probe of the reference set of probes and each targeted engine order; g) for each combination, calculating a combination mean condition number from the combination condition numbers; h) ordering the combination means from step g) relative to the reference mean and selecting a predetermined number of combinations; i) deriving a blade tip parameter from the measurements and the position of each probe of the selected combination; and j) calculating uncertainty of the blade tip parameter for each selected combination as a percentage of the reference blade tip parameter. a) measuring time of arrival of each of a set of blades at each of a reference set of stationary probes; b) deriving a reference blade tip parameter from the measurements and the position of each of the probes; c) calculating a reference condition number from the position of each of the probes and each targeted engine order; d) calculating a reference mean condition number from the reference condition numbers; e) defining an integer subset x and determining all combinations of x probes; f) for each combination, calculating a condition number from the position of each probe of the reference set of probes and each targeted engine order; g) for each combination, calculating a combination mean condition number from the combination condition numbers; h) ordering the combination means from step g) relative to the reference mean and selecting a predetermined number of combinations; i) deriving a blade tip parameter from the measurements and the position of each probe of the selected combination; and j) calculating uncertainty of the blade tip parameter for each selected combination as a percentage of the reference blade tip parameter.