mhurhangee/ep-ind-claims huggingface dataset:
A ferritic lightweight high-strength steel sheet consisting of: 0.02 wt% to 0.1 wt% of carbon; 4 wt% to 15 wt% of manganese (Mn); 4 wt% to 10 wt% of aluminum (Al); 2.0 wt% or less (excluding 0) of silicon (Si); 0.01 wt% to 0.3 wt% of titanium (Ti); 0.005 wt% to 0.2 wt% of antimony (Sb); 0.001 wt% to 0.02 wt% of calcium (Ca); 0.001 wt% to 0.003 wt% of boron; and iron (Fe) as well as unavoidable impurities as a remainder, wherein a value of 0.25xTi/C is in a range of 0.17 to 1.0 and a value of Mn/Al×Log(C×Ti×10000) is in a range of 1.0 to 10, wherein the steel sheet has a specific gravity of 7.2 g/cc or less, a tensile strength of 540 MPa or more, a yield ratio of 0.8 or more, a value of tensile strength × elongation (TS×El) of 17,000 MPa% or more, and an in-plane anisotropy of 0.3 or less. 0.02 wt% to 0.1 wt% of carbon; 4 wt% to 15 wt% of manganese (Mn); 4 wt% to 10 wt% of aluminum (Al); 2.0 wt% or less (excluding 0) of silicon (Si); 0.01 wt% to 0.3 wt% of titanium (Ti); 0.005 wt% to 0.2 wt% of antimony (Sb); 0.001 wt% to 0.02 wt% of calcium (Ca); 0.001 wt% to 0.003 wt% of boron; and iron (Fe) as well as unavoidable impurities as a remainder,
An in vitro method for analyzing nucleic acids, the method comprising: a) providing at least one isolated cell that comprises genetic material and b) performing a salt-based sequential fractionation on genetic material to separate genomic regions on the basis of their accessibility and obtain chromatin fractions and c) extracting the nucleic acids from the above chromatin fractions and d) optionally sonicating the extracted nucleic acids such that chromatin is fragmented to have comparable profile of different fractions and e) sequencing the extracted nucleic acids of step c) or the sonicated nucleic acid of step d), wherein the nucleic acid is DNA and step b) comprises obtaining the following fractions: a fraction enriched of soluble nuclear and cytoplasmic proteins ("S1"), a fraction enriched in chromatin binding protein ("S2"), a fraction enriched in histones and histone bound proteins ("S3"), a fraction enriched in nucleo-skeleton and membrane associated proteins ("S4") and after DNA extraction, the fraction S2 is sub fractionated in two sub fractions and one sub fraction comprising smaller nucleic acid fragments of about 100-200bp ("S2small" or "S2s") is directly isolated while the other sub fraction ("S2larger" or "S21") is subjected to the sonication of step d). a) providing at least one isolated cell that comprises genetic material and b) performing a salt-based sequential fractionation on genetic material to separate genomic regions on the basis of their accessibility and obtain chromatin fractions and c) extracting the nucleic acids from the above chromatin fractions and d) optionally sonicating the extracted nucleic acids such that chromatin is fragmented to have comparable profile of different fractions and e) sequencing the extracted nucleic acids of step c) or the sonicated nucleic acid of step d), wherein the nucleic acid is DNA
Weapon system having the following features a first weapon configured to fire a first munition within a first corridor; a second weapon configured to fire a second ammunition within a second corridor, wherein the first corridor and the second corridor overlap in an area where a collision of the first and second munitions poses a threat to a carrier platform of the weapon system; characterized by an interrupter unit, wherein the interrupter unit is configured to prevent the second weapon from firing when the first weapon is firing. a first weapon configured to fire a first munition within a first corridor; a second weapon configured to fire a second ammunition within a second corridor, wherein the first corridor and the second corridor overlap in an area where a collision of the first and second munitions poses a threat to a carrier platform of the weapon system; characterized by an interrupter unit, wherein the interrupter unit is configured to prevent the second weapon from firing when the first weapon is firing.
Method for sensing strain in a component in a wind turbine comprising an optical sensor system, said method comprising the steps of: inputting an input optical signal into a plurality of optical fibres (10, 510-512) of said sensor system, each of said optical fibres comprising a plurality of fibre Bragg grating sensors measuring a spectral intensity distribution of a transmitted output optical signal influenced by said one or more sensors, in response to the input optical signal, with a plurality of light detectors (15, 15a-c), said light detectors being operatively connected to the optical fibres with first and second detectors connected to respective first and second fibres, and with said first and second detectors being located downstream relative to said one or more sensors of said respective first and second fibres, and processing the measured output optical signal in a control unit in order to establish a value of a strain in the component, characterised in that the input optical signal is a broad band optical signal with a spectral distribution that is broader than a spectral operating range of the plurality of grating sensors. inputting an input optical signal into a plurality of optical fibres (10, 510-512) of said sensor system, each of said optical fibres comprising a plurality of fibre Bragg grating sensors measuring a spectral intensity distribution of a transmitted output optical signal influenced by said one or more sensors, in response to the input optical signal, with a plurality of light detectors (15, 15a-c), said light detectors being operatively connected to the optical fibres with first and second detectors connected to respective first and second fibres, and with said first and second detectors being located downstream relative to said one or more sensors of said respective first and second fibres, and processing the measured output optical signal in a control unit in order to establish a value of a strain in the component, characterised in that the input optical signal is a broad band optical signal with a spectral distribution that is broader than a spectral operating range of the plurality of grating sensors.
A rotor for a rotating electric machine, comprising: - a rotor core having magnet insertion holes; - rotor winding portions provided in the rotor core; and - rotor permanent magnets inserted into the magnet insertion holes, wherein each of the rotor winding portions includes: - a non-magnet portion formed of a magnetic member other than a permanent magnet or a non-magnetic member; and - a rotor winding wound around the non-magnet portion, wherein, when a direction perpendicular to a winding direction of each of the rotor winding portions is defined as a winding axis direction, each of the rotor winding portions is arranged in such a manner that the winding axis direction matches a radial direction of the rotor core, wherein each of the non-magnet portions has a fixed surface fixed to the rotor core, wherein the rotor windings are fixed to the rotor core through intermediation of the non-magnet portions, wherein the rotor core has winding-portion insertion holes, wherein the rotor winding portions are inserted into the winding-portion insertion holes, and wherein the fixed surface is fixed to an inner surface of the winding-portion insertion hole. - a rotor core having magnet insertion holes; - rotor winding portions provided in the rotor core; and - rotor permanent magnets inserted into the magnet insertion holes, wherein each of the rotor winding portions includes: - a non-magnet portion formed of a magnetic member other than a permanent magnet or a non-magnetic member; and - a rotor winding wound around the non-magnet portion, - a non-magnet portion formed of a magnetic member other than a permanent magnet or a non-magnetic member; and - a rotor winding wound around the non-magnet portion, wherein, when a direction perpendicular to a winding direction of each of the rotor winding portions is defined as a winding axis direction, each of the rotor winding portions is arranged in such a manner that the winding axis direction matches a radial direction of the rotor core, wherein each of the non-magnet portions has a fixed surface fixed to the rotor core, wherein the rotor windings are fixed to the rotor core through intermediation of the non-magnet portions, wherein the rotor core has winding-portion insertion holes, wherein the rotor winding portions are inserted into the winding-portion insertion holes, and wherein the fixed surface is fixed to an inner surface of the winding-portion insertion hole.
A method in a computing device that implements a video decoder (450; 600), the method comprising: receiving encoded data in a bitstream; and decoding the encoded data to produce reconstructed video frames, including: as part of processing for a slice header of a slice, evaluating whether a value of a variable is greater than 1, the variable indicating a number of total reference pictures; and only when the value is greater than 1, conditionally parsing from the bitstream: (a) a first flag that indicates whether a first reference picture list, RPL, is modified according to syntax elements explicitly signaled in the bitstream; and (b) if slice type of the slice is B, a second flag that indicates whether a second RPL is modified according to syntax elements explicitly signaled in the bitstream. receiving encoded data in a bitstream; and decoding the encoded data to produce reconstructed video frames, including: as part of processing for a slice header of a slice, evaluating whether a value of a variable is greater than 1, the variable indicating a number of total reference pictures; and only when the value is greater than 1, conditionally parsing from the bitstream: (a) a first flag that indicates whether a first reference picture list, RPL, is modified according to syntax elements explicitly signaled in the bitstream; and (b) if slice type of the slice is B, a second flag that indicates whether a second RPL is modified according to syntax elements explicitly signaled in the bitstream. as part of processing for a slice header of a slice, evaluating whether a value of a variable is greater than 1, the variable indicating a number of total reference pictures; and only when the value is greater than 1, conditionally parsing from the bitstream: (a) a first flag that indicates whether a first reference picture list, RPL, is modified according to syntax elements explicitly signaled in the bitstream; and (b) if slice type of the slice is B, a second flag that indicates whether a second RPL is modified according to syntax elements explicitly signaled in the bitstream. (a) a first flag that indicates whether a first reference picture list, RPL, is modified according to syntax elements explicitly signaled in the bitstream; and (b) if slice type of the slice is B, a second flag that indicates whether a second RPL is modified according to syntax elements explicitly signaled in the bitstream.
A tool verification system (10, 110, 210, 310), comprising: a qualified tool (12, 212); a test system (14, 114, 214, 314) having an unqualified component, the test system (14, 114, 214, 314) communicatively connected with the qualified tool (12, 212); and a tool verification component (16, 116, 216, 316) configured to sense a set of communications between the qualified tool (12, 212) and the unqualified component, to compare the sensed set of communications with a predetermined set of communications between the qualified tool (12, 212) and a previously-qualified component, determine whether the unqualified component functionally operates in accordance with the previously-qualified version of the unqualified component, based on the comparison, and determine the unqualified component is a qualified component based on the determination that the unqualified component functionally operates in accordance with the previously-qualified component; wherein the previously-qualified component is a prior version of the unqualified component, and characterized by wherein the tool verification component (16, 116, 216, 316) further comprises a precision timer configured to time stamp each of the sensed set of communications, at the time of sensing, with a time from the precision timer, and wherein the tool verification component (16, 116, 216, 316) is configured to compare the sensed set of communications with a predetermined set of communications between the qualified tool (12, 212) and the previously-qualified component based on the time stamp of the sensed set of communications. a qualified tool (12, 212); a test system (14, 114, 214, 314) having an unqualified component, the test system (14, 114, 214, 314) communicatively connected with the qualified tool (12, 212); and a tool verification component (16, 116, 216, 316) configured to sense a set of communications between the qualified tool (12, 212) and the unqualified component, to compare the sensed set of communications with a predetermined set of communications between the qualified tool (12, 212) and a previously-qualified component, determine whether the unqualified component functionally operates in accordance with the previously-qualified version of the unqualified component, based on the comparison, and determine the unqualified component is a qualified component based on the determination that the unqualified component functionally operates in accordance with the previously-qualified component; wherein the previously-qualified component is a prior version of the unqualified component, and characterized by wherein the tool verification component (16, 116, 216, 316) further comprises a precision timer configured to time stamp each of the sensed set of communications, at the time of sensing, with a time from the precision timer, and wherein the tool verification component (16, 116, 216, 316) is configured to compare the sensed set of communications with a predetermined set of communications between the qualified tool (12, 212) and the previously-qualified component based on the time stamp of the sensed set of communications.
A vitreous silica crucible for pulling a silicon single crystal, comprising a mineralizer disposed on the inner surface of the crucible, wherein the mineralizer contains at least one of the atoms selected from the group consisting of Ca, Ba, Fe and Ti, and the concentration of the mineralizer on the inner surface is 1.0×10 8 to 1.0×10 14 atoms/cm 2.
Table system consisting of: a) a stand base near the ground, having a receiving space for fuel; b) a above the stand base arranged burner housing, in which a burner is arranged; c) a above the burner housing placed table plate; d) with a above the burner arranged umbrella stand, wherein on its other umbrella stand end a preferably foldable umbrella is arranged, wherein in the burner housing a preferably circumferential portion is provided with a plurality of flow openings penetrating the portion and wherein a central part of the table plate is provided with a plurality of flow openings and the flow openings (24, 32) are connected with the receiving space surrounding the burner in the burner housing for the flow of the by the burner heated air, e) wherein a lying fuel tank is provided in the stand base, which can be taken out through a flap or opening in the stand base, wherein a receiving rack is provided in the stand base, in which a for the receiving rack suitable frame for receiving the fuel tank is accommodated. a) a stand base near the ground, having a receiving space for fuel; b) a above the stand base arranged burner housing, in which a burner is arranged; c) a above the burner housing placed table plate; d) with a above the burner arranged umbrella stand, wherein on its other umbrella stand end a preferably foldable umbrella is arranged, wherein in the burner housing a preferably circumferential portion is provided with a plurality of flow openings penetrating the portion and wherein a central part of the table plate is provided with a plurality of flow openings and the flow openings (24, 32) are connected with the receiving space surrounding the burner in the burner housing for the flow of the by the burner heated air, e) wherein a lying fuel tank is provided in the stand base, which can be taken out through a flap or opening in the stand base,
An active material comprising particles comprising a nanocomposite region where a main phase of a titanium-including composite oxide and a second phase of titanium dioxide co-exist within a crystal domain of the titanium-including composite oxide, the titanium-including composite oxide having a crystal structure belonging to a space group Cmca, a space group Fmmm, or both the space group Cmca and the space group Fmmm, wherein the titanium-including composite oxide comprises a composite oxide represented by a general formula Li 2+a M1 2-b Ti 6-c M2 d O 14+δ, wherein M1 is at least one selected from the group consisting of Sr, Ba, Ca, Mg, Na, Cs, Rb, and K, M2 is at least one selected from the group consisting of Zr, Sn, V, Nb, Ta, Mo, W, Y, Fe, Co, Cr, Mn, Ni, and Al, a is within a range of 0 ≤ a ≤ 6, b is within a range of 0 ≤ b < 2, c is within a range of 0 ≤ c < 6, d is within a range of 0 ≤ d < 6, and δ is within a range of -0.5 ≤ δ ≤ 0.5.
A machine for making filter bags for infusion products starting from pieces of filter material each containing at least one dose of infusion product and having, the pieces, a corresponding longitudinal axis of extension, the machine comprising at least: - a carousel rotating about a main axis of rotation and equipped with a plurality of movable gripping elements rotating about the main axis of rotation along a closed circular trajectory; each gripping element being configured to receive and retain the piece of filter material along an operating path; - at least one operating station configured to perform at least one operation on the piece of filter material retained by a corresponding gripping element along the operating path inside the closed circular trajectory; characterised in that each gripping element is provided with articulation means configured for obtaining a further rotation about at least a secondary axis of rotation, transversal to the main axis of rotation, to rotate and position the corresponding piece of filter material with its longitudinal axis of extension parallel to the main axis of rotation at least at the at least one operating station. - a carousel rotating about a main axis of rotation and equipped with a plurality of movable gripping elements rotating about the main axis of rotation along a closed circular trajectory; each gripping element being configured to receive and retain the piece of filter material along an operating path; - at least one operating station configured to perform at least one operation on the piece of filter material retained by a corresponding gripping element along the operating path inside the closed circular trajectory;
A method of making a biocompatible mesh composition, the method comprising: a) incubating a plurality of fragments of a dermal acellular tissue matrix in an acidic solution to create a homogeneous suspension of swollen ATM fragments, wherein the acidic solution has a pH less than 3.0 and does not cause substantial irreversible denaturation of collagen fibers in the ATM, wherein the ATM comprises a dermal tissue from which all, or substantially all, viable cells have been removed; b) applying the homogeneous suspension to a biocompatible synthetic mesh substrate to create a coated synthetic substrate; and c) drying the coated biocompatible synthetic mesh substrate to form a coated synthetic composition. a) incubating a plurality of fragments of a dermal acellular tissue matrix in an acidic solution to create a homogeneous suspension of swollen ATM fragments, wherein the acidic solution has a pH less than 3.0 and does not cause substantial irreversible denaturation of collagen fibers in the ATM, wherein the ATM comprises a dermal tissue from which all, or substantially all, viable cells have been removed; b) applying the homogeneous suspension to a biocompatible synthetic mesh substrate to create a coated synthetic substrate; and c) drying the coated biocompatible synthetic mesh substrate to form a coated synthetic composition.
A content control apparatus comprising: a plurality of display units having respective display areas arranged in a loop; a display controller configured to display a content on any one of the plurality of display units; an instruction receiver configured to receive a content transfer instruction, which is input by a sliding operation on the content displayed on a corresponding one of the display units and is accompanied by a content ID and a sliding speed; a content controller configured to, in response to receiving the content transfer instruction: record, in a memory, a transfer start position in accordance with the content ID, and transfer the content from the display unit that initially displays the content, to pass sequentially through other display units; and a stop unit configured to stop the content that passes through the plurality of display units arranged in the loop and returns at a boundary defined based on the transfer start position recorded in accordance with the content ID of the content. a plurality of display units having respective display areas arranged in a loop; a display controller configured to display a content on any one of the plurality of display units; an instruction receiver configured to receive a content transfer instruction, which is input by a sliding operation on the content displayed on a corresponding one of the display units and is accompanied by a content ID and a sliding speed; a content controller configured to, in response to receiving the content transfer instruction: record, in a memory, a transfer start position in accordance with the content ID, and transfer the content from the display unit that initially displays the content, to pass sequentially through other display units; and record, in a memory, a transfer start position in accordance with the content ID, and transfer the content from the display unit that initially displays the content, to pass sequentially through other display units; and a stop unit configured to stop the content that passes through the plurality of display units arranged in the loop and returns at a boundary defined based on the transfer start position recorded in accordance with the content ID of the content.