mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a waveguide system comprising a dielectric coupler, wherein the dielectric coupler is positioned with respect to a wire of a power grid that facilitates delivery of electric energy to devices, wherein the dielectric coupler is configured to transmit or receive electromagnetic waves that propagate along an outer surface of the wire without requiring an electrical return path, wherein the electromagnetic waves at least partially surround the wire, wherein the wire serves as a single wire transmission line for propagating the electromagnetic waves along the outer surface of the wire, wherein the single wire transmission line is not part of a circuit, and wherein the electromagnetic waves propagate along the dielectric coupler without requiring an electrical return path; and a sensor configured to sense a condition that is adverse to one of an operation of the waveguide system associated with the transmission or the reception of the electromagnetic waves, or the transmission or reception of the electromagnetic waves that propagate along the outer surface of the wire. a waveguide system comprising a dielectric coupler, wherein the dielectric coupler is positioned with respect to a wire of a power grid that facilitates delivery of electric energy to devices, wherein the dielectric coupler is configured to transmit or receive electromagnetic waves that propagate along an outer surface of the wire without requiring an electrical return path, wherein the electromagnetic waves at least partially surround the wire, wherein the wire serves as a single wire transmission line for propagating the electromagnetic waves along the outer surface of the wire, wherein the single wire transmission line is not part of a circuit, and wherein the electromagnetic waves propagate along the dielectric coupler without requiring an electrical return path; and a sensor configured to sense a condition that is adverse to one of an operation of the waveguide system associated with the transmission or the reception of the electromagnetic waves, or the transmission or reception of the electromagnetic waves that propagate along the outer surface of the wire.
A crystal (Form A crystal) of N-[4-(4-fluorophenyl)-2,2-dimethyl-3-oxo-3,4-dihydro-2H-1,4-benzoxazin-7-yl]methanesulfonamide, which has at least one diffraction peak at 6.7° to 11.0°, and has diffraction peaks at 18.1° and 23.7° as the diffraction angle (2θ±0.2°) in the X-ray powder diffraction.
Fe-Si-La alloy with the atomic composition: (La 1-a-a' Mm a TR a') 1 [(Fe 1-b-b' Co b M b') 1-x (Si 1-c X c) x] 13 (C d N e H 1-d-e) y z f wherein Mm represents a mixture of lanthanum, cerium, neodymium and praseodymium in the weight proportion of 22 to 26 % of La, 48 to 53 % of Ce, 17 to 20 % of Nd and 5 to 7 % of Pr, said mixture may comprise up to 1% by weight of impurities, TR representing one or several elements of the family of rare earths other than lanthanum, M representing one or several transition elements of type d from the layers 3d, 4d and 5d, X representing a metalloid element, selected from among Ge, Al, B, Ga and In R representing one or several elements, selected from among Al, Ca, Mg, K and Na, I representing one or two elements, selected from among O and S, with 0 ≤ a < 0.5 and 0 ≤ a ′ < 0.2 0 ≤ b ≤ 0.2 and 0 ≤ b ′ < 0.4 0 ≤ c ≤ 0.5 and 0 < d ≤ 1 0 ≤ e ≤ 1 and f ≤ 0.1 0.09 ≤ x ≤ 0.13 and 0.002 ≤ y ≤ 4 0.0001 ≤ z ≤ 0.01 the indices b, d, e, x and y being such that the alloy further meets the following condition: 6.143 b 13 1 − x + 4.437 y 1 − 0.0614 d + e ≥ 1 d * y ≥ 0.005 wherein Mm represents a mixture of lanthanum, cerium, neodymium and praseodymium in the weight proportion of 22 to 26 % of La, 48 to 53 % of Ce, 17 to 20 % of Nd and 5 to 7 % of Pr, said mixture may comprise up to 1% by weight of impurities, TR representing one or several elements of the family of rare earths other than lanthanum, M representing one or several transition elements of type d from the layers 3d, 4d and 5d, X representing a metalloid element, selected from among Ge, Al, B, Ga and In R representing one or several elements, selected from among Al, Ca, Mg, K and Na, I representing one or two elements, selected from among O and S, with 0 ≤ a < 0.5 and 0 ≤ a ′ < 0.2 0 ≤ b ≤ 0.2 and 0 ≤ b ′ < 0.4 0 ≤ c ≤ 0.5 and 0 < d ≤ 1 0 ≤ e ≤ 1 and f ≤ 0.1 0.09 ≤ x ≤ 0.13 and 0.002 ≤ y ≤ 4 0.0001 ≤ z ≤ 0.01
Wellbore temperature sensing apparatus for use in sensing temperature along a wellbore, comprising: tubing being metallic tubing, comprising a plurality of temperature sensor modules (120a, 120b, 120c... 120n) provided at locations along the inside of the tubing, having electrical properties that vary with temperature; and an electrical network comprising a plurality of wires and said plurality of temperature sensor modules, wherein the plurality of wires and plurality of temperature sensor modules are configured as a matrix by which the plurality of wires comprises a first group of wires and a second, different group of wires and each wire of the first group is electrically connected to each wire of the second group once, each electrical connection being by a respective temperature sensor module of the plurality of temperature sensor modules (120a, 120b, 120c... 120n), such that each temperature sensor module can be individually electrically connected by a pair of wires comprising a first wire from the first group and a second wire from the second group; a wireless data communication module coupled, wirelessly, by a separate wireless connection or electrically by a wired connection, to the apparatus, and arranged to, in use, wirelessly transmit along the well, signals indicative of a temperature sensed in the wellbore by the apparatus; wherein the wireless data communication module is configured to transmit said signals acoustically and/or electromagnetically, and a power source configured to provide operational power to the apparatus; wherein the power source is arranged to be provided as an in-well power source in use tubing being metallic tubing, comprising a plurality of temperature sensor modules (120a, 120b, 120c... 120n) provided at locations along the inside of the tubing, having electrical properties that vary with temperature; and an electrical network comprising a plurality of wires and said plurality of temperature sensor modules, wherein the plurality of wires and plurality of temperature sensor modules are configured as a matrix by which the plurality of wires comprises a first group of wires and a second, different group of wires and each wire of the first group is electrically connected to each wire of the second group once, each electrical connection being by a respective temperature sensor module of the plurality of temperature sensor modules (120a, 120b, 120c... 120n), such that each temperature sensor module can be individually electrically connected by a pair of wires comprising a first wire from the first group and a second wire from the second group; a wireless data communication module coupled, wirelessly, by a separate wireless connection or electrically by a wired connection, to the apparatus, and arranged to, in use, wirelessly transmit along the well, signals indicative of a temperature sensed in the wellbore by the apparatus; wherein the wireless data communication module is configured to transmit said signals acoustically and/or electromagnetically, and a power source configured to provide operational power to the apparatus; wherein the power source is arranged to be provided as an in-well power source in use
A scroll vacuum pump comprising a fan controllable in its rotational speed for cooling the vacuum pump; a temperature sensor; and a control device which is configured to regulate the rotational speed of the fan in dependence on a power consumption of a drive of the vacuum pump and on a temperature measured by the temperature sensor. a fan controllable in its rotational speed for cooling the vacuum pump; a temperature sensor; and a control device which is configured to regulate the rotational speed of the fan in dependence on a power consumption of a drive of the vacuum pump and on a temperature measured by the temperature sensor.
An adeno-associated virus vector having a serotype of AAV1, AAV6, AAV 8 or AAV9 comprising (i) a capsid comprising a VP1.5 protein of AAV1, AAV6, AAV8 or AAV9 respectively; (ii) a minigene comprising AAV inverted terminal repeats; and (iii) a heterologous nucleic acid sequence operably linked to regulatory sequences which direct expression of a product from the heterologous nucleic acid sequence in a host cell; wherein (a) said AAV vector is a AAV8 and said VP 1.5 protein consists of the sequence of amino acids shown in Figure 5, panel A, wherein the amino acid at the amino terminus is a leucine or wherein said VP1.5 protein consists of the sequence of amino acids shown in Figure 5, panel B, wherein the amino acid at the amino terminus is a methionine; or (b) the AAV vector is selected from the group consisting of AAV1, AAV6 and AAV9 and comprises a variant CTG codon in the place of a naturally occurring CTC at position 219 of the nucleotide sequence encoding the cap protein; or (c) said AAV vector is an AAV8 vector and comprises a variant CTG start codon at position at position 177 of the nucleotide sequence encoding the cap protein. (i) a capsid comprising a VP1.5 protein of AAV1, AAV6, AAV8 or AAV9 respectively; (ii) a minigene comprising AAV inverted terminal repeats; and (iii) a heterologous nucleic acid sequence operably linked to regulatory sequences which direct expression of a product from the heterologous nucleic acid sequence in a host cell; wherein (a) said AAV vector is a AAV8 and said VP 1.5 protein consists of the sequence of amino acids shown in Figure 5, panel A, wherein the amino acid at the amino terminus is a leucine or wherein said VP1.5 protein consists of the sequence of amino acids shown in Figure 5, panel B, wherein the amino acid at the amino terminus is a methionine; or (b) the AAV vector is selected from the group consisting of AAV1, AAV6 and AAV9 and comprises a variant CTG codon in the place of a naturally occurring CTC at position 219 of the nucleotide sequence encoding the cap protein; or (c) said AAV vector is an AAV8 vector and comprises a variant CTG start codon at position at position 177 of the nucleotide sequence encoding the cap protein. (a) said AAV vector is a AAV8 and said VP 1.5 protein consists of the sequence of amino acids shown in Figure 5, panel A, wherein the amino acid at the amino terminus is a leucine or wherein said VP1.5 protein consists of the sequence of amino acids shown in Figure 5, panel B, wherein the amino acid at the amino terminus is a methionine; or (b) the AAV vector is selected from the group consisting of AAV1, AAV6 and AAV9 and comprises a variant CTG codon in the place of a naturally occurring CTC at position 219 of the nucleotide sequence encoding the cap protein; or (c) said AAV vector is an AAV8 vector and comprises a variant CTG start codon at position at position 177 of the nucleotide sequence encoding the cap protein.
Process for hardening a coating (L1, L2, L3) of a solar collector element, the element including a conductive material or a conductive layer, the process comprising the step of providing the coating (L1, L2, L3) on the conductive material or the conductive layer by a sol-gel method and of hardening said coating (L1, L2, L3) by induction heating, and the process being characterized in that a portion of the coating (L1, L2, L3) is heated selectively from the inside of the coating to the outside of the coating (L1, L2, L3) and in that this portion of the coating (L1, L2, L3) is heated selectively by an induction coil surrounding this portion of the coating (L1, L2, L3).
A tool assembly for a rotating device, comprising a driving device of a control and a supporting device for at least one tool insert, characterized in that the tool assembly is designed as a crank drive assembly, wherein the supporting device comprises a swinging piston unit and the driving device comprises a crank unit and the swinging piston unit and the crank unit are connected to each other by a push rod unit, wherein the crank unit includes a gear unit, by means of which a drive force initiated in a centrally rotating manner is translated into an output unit which rotates eccentrically around the center.
Electrohydraulic thermostat system for a filter device, comprising a main valve and a pilot valve, wherein the main valve comprises a valve body which is arranged in a receiving section of a housing, wherein the valve body subdivides the receiving section into a fluid distribution chamber, which receives a pressurized working fluid through a pressure line and is configured to distribute the working fluid to an inflow line of a component for changing a temperature of the working fluid and/or to a bypass line for bypassing the component, and a control chamber, wherein the pilot valve is configured to cause a pressure difference between the fluid distribution chamber and the control chamber as a function of the temperature of the working fluid so that the valve body in the receiving section is movable due to the pressure difference of the working fluid, wherein a movement of the valve body causes the inflow line and/or the bypass line to selectively at least partially open and/or close, wherein the valve body comprises a divider plate which subdivides the receiving section into the fluid distribution chamber and the control chamber, and characterized in that the divider plate has a predetermined radial clearance against the receiving section, wherein the predetermined radial clearance creates a controlled leakage gap for pressure equalization between the fluid distribution chamber and the control chamber. wherein the valve body comprises a divider plate which subdivides the receiving section into the fluid distribution chamber and the control chamber, and characterized in that the divider plate has a predetermined radial clearance against the receiving section, wherein the predetermined radial clearance creates a controlled leakage gap for pressure equalization between the fluid distribution chamber and the control chamber.
A vial spiking assembly comprising: a vial adapter comprising: a base; a spike extending from a central region of the base; and a sidewall extending from the base and substantially surrounding the spike, the base and the side wall at least partially defining a cavity configured to receive a portion of a vial; and a spike cover removably attachable to the spike, characterized in that the spike cover comprises a material configured to indicate when the material has been contacted with liquid, wherein the spike cover comprises a housing defining a cavity in which the material is disposed, wherein the housing is formed of a gas permeable material. a vial adapter comprising: a base; a spike extending from a central region of the base; and a sidewall extending from the base and substantially surrounding the spike, the base and the side wall at least partially defining a cavity configured to receive a portion of a vial; and a base; a spike extending from a central region of the base; and a sidewall extending from the base and substantially surrounding the spike, the base and the side wall at least partially defining a cavity configured to receive a portion of a vial; and a spike cover removably attachable to the spike, characterized in that the spike cover comprises a material configured to indicate when the material has been contacted with liquid, wherein the spike cover comprises a housing defining a cavity in which the material is disposed, wherein the housing is formed of a gas permeable material.
A polypeptide comprising at least four domains specifically binding to a certain MHC-peptide complex, said domains separated by linker amino acid sequences, thereby providing each domain with the capability to bind a separate MHC-peptide complex, wherein said specific binding domains comprise an immunoglobulin fragment, wherein said immunoglobulin fragments are a natural, mutated and/or synthetic variable domain VH of an antibody.
An apparatus for correcting acquired data, which includes a topology processing, TP, unit for acquiring data including circuit breaker information from a supervisory control and data acquisition, SCADA, system, characterized in that the apparatus further comprises: a plurality of data processing groups (210, 220, 230), wherein the TP unit is configured to identify a kind of the data and a data processing period and to output the data to one of the plurality of data processing groups (210, 220, 230) according to the identified data processing period, wherein each of the plurality of data processing groups (210, 220 and 230) is configured to perform state estimation with respect to the data output from the TP unit, and to process the data according to a predetermined data processing period, wherein each data processing group (210, 220 or 230) includes: a state estimation, ES, unit (212, 221 or 231) configured to store the data output from the TP unit according to said data processing period; and at least one data processing unit (213, 214, 222 and 232) configured to process the data stored in the ES unit according to the corresponding data processing period of the data processing group (210, 220 or 230). a plurality of data processing groups (210, 220, 230), wherein the TP unit is configured to identify a kind of the data and a data processing period and to output the data to one of the plurality of data processing groups (210, 220, 230) according to the identified data processing period, wherein each of the plurality of data processing groups (210, 220 and 230) is configured to perform state estimation with respect to the data output from the TP unit, and to process the data according to a predetermined data processing period, wherein each data processing group (210, 220 or 230) includes: a state estimation, ES, unit (212, 221 or 231) configured to store the data output from the TP unit according to said data processing period; and at least one data processing unit (213, 214, 222 and 232) configured to process the data stored in the ES unit according to the corresponding data processing period of the data processing group (210, 220 or 230). a state estimation, ES, unit (212, 221 or 231) configured to store the data output from the TP unit according to said data processing period; and at least one data processing unit (213, 214, 222 and 232) configured to process the data stored in the ES unit according to the corresponding data processing period of the data processing group (210, 220 or 230).
A fabric for cross stitching or embroidery, said fabric comprising: a plurality of horizontal threads; a plurality of vertical threads; a plurality of removable horizontal guidelines; a plurality of removable vertical guidelines; said guidelines (18, 19) being interwoven with said plurality of horizontal threads and with said plurality of vertical threads; said horizontal guidelines being at regularly spaced intervals along a vertical direction in the plane of said fabric; said vertical guidelines being at regularly spaced intervals along a horizontal direction in the plane of said fabric; characterized in that said guidelines (18, 19) are monofilament guidelines. a plurality of horizontal threads; a plurality of vertical threads; a plurality of removable horizontal guidelines; a plurality of removable vertical guidelines; said guidelines (18, 19) being interwoven with said plurality of horizontal threads and with said plurality of vertical threads; said horizontal guidelines being at regularly spaced intervals along a vertical direction in the plane of said fabric; said vertical guidelines being at regularly spaced intervals along a horizontal direction in the plane of said fabric; characterized in that said guidelines (18, 19) are monofilament guidelines.
A sole structure (200, 200') for an article of footwear, the sole structure (200, 200') comprising: a main body (250, 250') formed of a first material and defining a first region of a ground-engaging surface including a first channel, the first channel including a plurality of segments, wherein each of the segments includes two or more nodes connected to each other by intermediate necked regions, and extends from a first end node to a second end node along a longitudinal segment axis (A s), and at least one insert (260, 260') formed of a second material and received by the main body (250, 250'), the plurality of segments (i) extending between a lateral side and a medial side of the sole structure (200, 200'), (ii) being serially end-to-end arranged, (iii) being arranged at alternating angles to each other to define a waveform pattern, and (iv) including at least one segment having sidewalls that provide the at least one segment with a variable width along a length of the at least one segment, wherein the plurality of segments includes a first segment extending from a first end node to a second end node along a first segment axis (A S1), a second segment extending from the second end node to a third end node along a second segment axis (A S2) disposed at an oblique angle with respect to the first segment axis (A S1), and a third segment extending from the third end node to a forth end node along a third segment axis (A S3) that is substantially parallel to the first segment axis (A S1) and oblique to the second segment axis (A S2).
A composite wall assembly edge joint, comprising: a first composite buildup pad secured to and extending along a first composite face sheet with the first composite buildup pad having a first tapered section with a first inclined surface which extends in a first direction and having a second section which extends from the first tapered section with a second surface which extends in a second direction, different from the first direction, toward a first end of the first composite face sheet; and an integrally formed composite flute core member, comprising: a tapered first portion secured to the first tapered section of the first composite buildup pad; a second portion which extends in a third direction away from the tapered first portion and is secured to the first composite face sheet; and a third portion which extends in the second direction, away from the tapered first portion, toward the first end of the first composite face sheet secured to the second section of the first composite buildup pad. a first composite buildup pad secured to and extending along a first composite face sheet with the first composite buildup pad having a first tapered section with a first inclined surface which extends in a first direction and having a second section which extends from the first tapered section with a second surface which extends in a second direction, different from the first direction, toward a first end of the first composite face sheet; and an integrally formed composite flute core member, comprising: a tapered first portion secured to the first tapered section of the first composite buildup pad; a second portion which extends in a third direction away from the tapered first portion and is secured to the first composite face sheet; and a third portion which extends in the second direction, away from the tapered first portion, toward the first end of the first composite face sheet secured to the second section of the first composite buildup pad. a tapered first portion secured to the first tapered section of the first composite buildup pad; a second portion which extends in a third direction away from the tapered first portion and is secured to the first composite face sheet; and a third portion which extends in the second direction, away from the tapered first portion, toward the first end of the first composite face sheet secured to the second section of the first composite buildup pad.