mhurhangee/ep-ind-claims huggingface dataset:
An endoscope shape display control device comprising: at least one processor, wherein the at least one processor is configured to acquire information detected by a navigation device for imaging a shape of an insertion part of an endoscope inserted in a subject, and to display on a monitor, in a case of generating a shape display image in which the shape of the insertion part is displayed based on the acquired information, the insertion part with a pattern added on a surface thereof in the shape display image, wherein the pattern is a gradation in which a color is changed continuously or stepwise from one of a distal end side or a proximal end side of the insertion part to the other thereof, and wherein the gradation is changed from green to blue. at least one processor, wherein the at least one processor is configured to acquire information detected by a navigation device for imaging a shape of an insertion part of an endoscope inserted in a subject, and to display on a monitor, in a case of generating a shape display image in which the shape of the insertion part is displayed based on the acquired information, the insertion part with a pattern added on a surface thereof in the shape display image, to acquire information detected by a navigation device for imaging a shape of an insertion part of an endoscope inserted in a subject, and to display on a monitor, in a case of generating a shape display image in which the shape of the insertion part is displayed based on the acquired information, the insertion part with a pattern added on a surface thereof in the shape display image, wherein the pattern is a gradation in which a color is changed continuously or stepwise from one of a distal end side or a proximal end side of the insertion part to the other thereof, and wherein the gradation is changed from green to blue.
An active material for battery comprising a monoclinic complex oxide which is expressed by the general formula Li x M1M2 2 O (7±δ), wherein M1 is at least one element selected from the group consisting of Ti, Zr, Si, and Sn, M2 is at least one element selected from the group consisting of Nb, V, Ta, Bi, and Mo, 0 ≤ x ≤ 5, and 0 ≤ 5 ≤ 0.3, and has symmetry belonging to the space group C2/m in International tables Vol. A No. 12, characterized in that in 2a or 4i occupied sites in a crystal of the monoclinic complex oxide, an occupancy g M1 of M1 is g M1 > 1/3 ± σ j or g M1 < 1/3 ± σ j, an occupancy g M2 of M2 is g M2 > 2/3 ± σ j or g M2 < 2/3 ± σ j, and g M1 + g M2 is 1.0, wherein σ j means the standard deviation when the occupancy is determined by the Rietveld method and σ j is in the range of 0.03 ≤ σ j ≤ 0.05.
Use of a method for evaluating a measurement result (DSCsample; DATAsample) of a thermal analysis for quality assurance in the production or processing of goods (24b, 26b), wherein the use comprises the following steps: - performance of a thermal analysis at least on a random sample basis on produced and/or processed goods (24b, 26b), - evaluation of the measurement results (DSCsample; DATAsample) of the thermal analysis by means of the method, characterised in that in the method a multiplicity of quantitative probabilities of agreement of the measurement result (DSCsample; DATAsample) with a multiplicity of datasets previously stored in a computing device (14; 14a-2) is calculated in a system (10; 10a) comprising a device (12; 12a) for performing the thermal analysis using the program-controlled computing device (14; 14a-2), wherein these calculations of the quantitative probabilities are in each case based on a comparison of effect data (DATAsample) previously extracted from a measurement curve (DSCsample) of the thermal analysis with corresponding stored effect data (DATAref1) of the dataset, wherein the effect data (DSCsample, DATAref1) take account of at least minima, maxima and steps of the measurement curve course (DSCsample), and optionally also maxima, minima and steps in the course of the derivative of the measurement curve course (DSCsample), as effect types, wherein a comparison algorithm used in the calculations is constituted such that different mathematical weightings and therefore varying degrees of importance can be assigned to different effect types and/or their effect features, and wherein the measurement results (DSCsample, DATAsample) are assigned in each case to one of a plurality of previously defined quality classes (C1, C2) using the computing device (14; 14a-2), wherein this assignment is based on the result of the calculation of the multiplicity of quantitative probabilities of agreement. - performance of a thermal analysis at least on a random sample basis on produced and/or processed goods (24b, 26b), - evaluation of the measurement results (DSCsample; DATAsample) of the thermal analysis by means of the method,
A cement admixture, characterized by comprising an expanding material and a tin sulfate-containing substance, the expanding material containing free lime, calcium sulfate anhydrite and one or two or more hydraulic compounds selected from hauyne, calcium silicate, calcium aluminoferrite and calcium ferrite, wherein said tin sulfate-containing substance is contained in an amount of 0.2 to 8 parts by mass - as calculated on a tin sulfate basis - in a total of 100 parts by mass of said expanding material and said tin sulfate-containing substance.
A microphone arrangement comprising: a carrier structure comprising a rear surface, a front surface and a through-hole between the rear surface and the front surface; a microphone comprising an enclosure (105, 501, 601), the enclosure (105, 501, 601) comprising a rear section (106, 502, 602) that fits into the through-hole and a front section (107, 503, 603) that rests on the front surface of the carrier structure around the through-hole, the front section (107, 503, 603) of the microphone enclosure (105, 501, 601) comprising a front surface (108, 504, 604) and a rear surface; and a microphone cover layer (110, 505, 605) that covers the front surface (108, 504, 604) of the front section (107, 503, 603) of the microphone enclosure (105, 501, 601), characterized in that the microphone cover layer (110, 505, 605) extends from the front surface (108, 504, 604) to the rear surface of the front section (107, 503, 603) of the microphone enclosure (105, 501, 601) and is sandwiched between the rear surface of the front section (107, 503, 603) of the microphone enclosure (105, 501, 601) and the front surface of the carrier structure. a carrier structure comprising a rear surface, a front surface and a through-hole between the rear surface and the front surface; a microphone comprising an enclosure (105, 501, 601), the enclosure (105, 501, 601) comprising a rear section (106, 502, 602) that fits into the through-hole and a front section (107, 503, 603) that rests on the front surface of the carrier structure around the through-hole, the front section (107, 503, 603) of the microphone enclosure (105, 501, 601) comprising a front surface (108, 504, 604) and a rear surface; and a microphone cover layer (110, 505, 605) that covers the front surface (108, 504, 604) of the front section (107, 503, 603) of the microphone enclosure (105, 501, 601), characterized in that the microphone cover layer (110, 505, 605) extends from the front surface (108, 504, 604) to the rear surface of the front section (107, 503, 603) of the microphone enclosure (105, 501, 601) and is sandwiched between the rear surface of the front section (107, 503, 603) of the microphone enclosure (105, 501, 601) and the front surface of the carrier structure.
A biasing connector for biasing a shielding element of a power cable electrically connectable with a cable joint, wherein an external sheath of said cable joint is suitable for extending over a length of a cable sheath of said power cable, the biasing connector including: - an end portion (155; 505) for contacting the shielding element, and - a conductive tape having a first end connected to the end portion of the biasing connector and a second end adapted to be connected to a terminal providing a biasing voltage, wherein: the conductive tape comprises at least one layer extending from the first end to the second end of the conductive tape, said at least one layer being made of a solid flat element which is a single element free from openings having a top and a bottom main surfaces that are substantially smooth, said at least one layer of a solid flat element having a width substantially equal to a transversal width (wd) of the conductive tape, at least one portion of said at least one layer being adapted to be at least partly covered by the external sheath; the end portion comprises a clamping element including a warped sheet of metallic material adapted to mechanically cooperate with the shielding element, the clamping element being a laterally opened tubular element. - an end portion (155; 505) for contacting the shielding element, and - a conductive tape having a first end connected to the end portion of the biasing connector and a second end adapted to be connected to a terminal providing a biasing voltage, the conductive tape comprises at least one layer extending from the first end to the second end of the conductive tape, said at least one layer being made of a solid flat element which is a single element free from openings having a top and a bottom main surfaces that are substantially smooth, said at least one layer of a solid flat element having a width substantially equal to a transversal width (wd) of the conductive tape, at least one portion of said at least one layer being adapted to be at least partly covered by the external sheath; the end portion comprises a clamping element including a warped sheet of metallic material adapted to mechanically cooperate with the shielding element, the clamping element being a laterally opened tubular element.
A method of manufacturing an array of void cells, the method comprising: molding individual void cells; arranging the individual void cells in an array; and attaching a separate porous binding layer to the individual void cells in the array, wherein the separate porous binding layer permits fluid flow between adjacent individual void cells, and wherein a material forming the individual void cells differs from a material forming the separate porous binding layer. molding individual void cells; arranging the individual void cells in an array; and attaching a separate porous binding layer to the individual void cells in the array, wherein the separate porous binding layer permits fluid flow between adjacent individual void cells, and wherein a material forming the individual void cells differs from a material forming the separate porous binding layer.
A fast chirp Phase Locked Loop, PLL, with boosted return time comprising: a Voltage Controlled Oscillator, VCO, configured to generate a Frequency Modulated Continuous Waveform, FMCW,, the VCO responsive to a filtered output voltage of a filter connected to a charge pump, the charge pump responsive to a difference between a reference frequency waveform and a divided frequency waveform generated by a frequency divider configured to divide the FMCW; a digital controller connected to the frequency divider and configured to modify a division ratio of the frequency divider to generate a chirp phase and a return phase, the chirp phase including a first linear change of the FMCW from a start frequency to a stop frequency, and the return phase including a second linear change of the FMCW from the stop frequency to the start frequency; characterized by: a boost circuit connected to the digital controller and the filter, the boost circuit supplying a boost current during the return phase, the boost current proportional to a return slope of the return phase and inversely proportional to a VCO gain of the VCO. a Voltage Controlled Oscillator, VCO, configured to generate a Frequency Modulated Continuous Waveform, FMCW,, the VCO responsive to a filtered output voltage of a filter connected to a charge pump, the charge pump responsive to a difference between a reference frequency waveform and a divided frequency waveform generated by a frequency divider configured to divide the FMCW; a digital controller connected to the frequency divider and configured to modify a division ratio of the frequency divider to generate a chirp phase and a return phase, the chirp phase including a first linear change of the FMCW from a start frequency to a stop frequency, and the return phase including a second linear change of the FMCW from the stop frequency to the start frequency; characterized by: a boost circuit connected to the digital controller and the filter, the boost circuit supplying a boost current during the return phase, the boost current proportional to a return slope of the return phase and inversely proportional to a VCO gain of the VCO.
Method for stripping leaves and/or flowers from a stalk, in particular for stripping cannabis leaves and/or cannabis flowers from a stalk, comprising the steps: a) forming of a loop around the stalk, which is formed at least in a partial area from loop means (3, 3a, 3b) which are flexurally elastic or flexurally slack and have tensile strength in the direction of the loop; and b) pulling of the stalk in the longitudinal direction of the stalk through the loop while stripping the leaves and/or flowers from the stalk, wherein the stalk is inserted transversely to the stripping direction into an area partially delimited by the loop means (3, 3a, 3b) and this area is then completely enclosed by the loop means (3, 3a, 3b) and any possible further elements forming the loop, characterized in that this area is circumferentially reduced in size until the stalk is completely or at least for the most part enclosed by the loop means (3, 3a, 3b) and the possible further elements forming the loop. a) forming of a loop around the stalk, which is formed at least in a partial area from loop means (3, 3a, 3b) which are flexurally elastic or flexurally slack and have tensile strength in the direction of the loop; and b) pulling of the stalk in the longitudinal direction of the stalk through the loop while stripping the leaves and/or flowers from the stalk, wherein the stalk is inserted transversely to the stripping direction into an area partially delimited by the loop means (3, 3a, 3b) and this area is then completely enclosed by the loop means (3, 3a, 3b) and any possible further elements forming the loop, characterized in that this area is circumferentially reduced in size until the stalk is completely or at least for the most part enclosed by the loop means (3, 3a, 3b) and the possible further elements forming the loop.
A flux-cored wire for gas-shielded arc welding, the flux-cored wire being obtained by filling a steel sheath with a flux and comprising, relative to a total mass of the wire: C: 0.01 to 0.12 mass%; Si: 0.05 mass% or more and less than 0.30 mass%; Mn: 1.0 to 3.5 mass%; Ni: 0.1 mass% or more and less than 1.0 mass%; Mo: 0.10 to 0.30 mass%; Cr: 0.1 to 0.9 mass%; TiO 2: 4.5 to 8.5 mass%; SiO 2: 0.10 to 0.40 mass%; Al 2 O 3: 0.03 to 0.23 mass%; and Fe: 80 mass% or more, wherein a V content is controlled to 0.020 mass% or less relative to the total mass of the wire and a ZrO 2 content is controlled to less than 0.02 mass% relative to the total mass of the wire, and wherein the flux-cored wire further comprises (a) to (e) below: (a) 0.2 to 0.7 mass% of Mg relative to the total mass of the wire, (b) 0.05 to 0.30 mass% of Ti relative to the total mass of the wire, (c) 0.05 to 0.30 mass% of a metal fluoride in terms of F relative to the total mass of the wire, (d) 0.01 to 0.30 mass% in total of at least one of a Na compound and a K compound in terms of Na and K relative to the total mass of the wire, and (e) 0.001 to 0.020 mass% in total of at least one of B, a B alloy, and a B oxide in terms of B relative to the total mass of the wire. C: 0.01 to 0.12 mass%; Si: 0.05 mass% or more and less than 0.30 mass%; Mn: 1.0 to 3.5 mass%; Ni: 0.1 mass% or more and less than 1.0 mass%; Mo: 0.10 to 0.30 mass%; Cr: 0.1 to 0.9 mass%; TiO 2: 4.5 to 8.5 mass%; SiO 2: 0.10 to 0.40 mass%; Al 2 O 3: 0.03 to 0.23 mass%; and Fe: 80 mass% or more, wherein a V content is controlled to 0.020 mass% or less relative to the total mass of the wire and a ZrO 2 content is controlled to less than 0.02 mass% relative to the total mass of the wire, and wherein the flux-cored wire further comprises (a) to (e) below: (a) 0.2 to 0.7 mass% of Mg relative to the total mass of the wire, (b) 0.05 to 0.30 mass% of Ti relative to the total mass of the wire, (c) 0.05 to 0.30 mass% of a metal fluoride in terms of F relative to the total mass of the wire, (d) 0.01 to 0.30 mass% in total of at least one of a Na compound and a K compound in terms of Na and K relative to the total mass of the wire, and (e) 0.001 to 0.020 mass% in total of at least one of B, a B alloy, and a B oxide in terms of B relative to the total mass of the wire. (a) 0.2 to 0.7 mass% of Mg relative to the total mass of the wire, (b) 0.05 to 0.30 mass% of Ti relative to the total mass of the wire, (c) 0.05 to 0.30 mass% of a metal fluoride in terms of F relative to the total mass of the wire, (d) 0.01 to 0.30 mass% in total of at least one of a Na compound and a K compound in terms of Na and K relative to the total mass of the wire, and (e) 0.001 to 0.020 mass% in total of at least one of B, a B alloy, and a B oxide in terms of B relative to the total mass of the wire.
A process for preparing an aromatic aldehyde compound represented by the formula; wherein R represents a halogen atom, a hydrocarbon group having 1 to 12 carbon atoms, an alkyloxy group having 1 to 12 carbon atoms, a phenyloxy group, a naphthyloxy group, a benzyloxy group or a phenethyloxy group, each group of which may have a substituent(s); n is an integer of 0 to 5; and when n is 2 or more, Rs may form a ring by combining with each other, which comprises reacting an aromatic methyl alcohol compound represented by the formula; wherein R and n have the same meanings as defined above, and a peroxide under a pH value of a reaction solution being pH 0.5 or higher and less than 9 in the presence of a molybdenum compound or under a pH value of a reaction solution being pH 3 or higher and less than 8 in the presence of a tungsten compound, and at least one salt selected from a quaternary ammonium salt and an organic phosphonium salt, wherein the aromatic aldehyde compound of the formula is at least one selected from the group consisting of the following formulae to: wherein R 1 and R 2 each represent an alkyl group having 1 to 12 carbon atoms, a phenyl group, a naphthyl group, a benzyl group or a phenethyl group, each group of which may have a substituent(s), and m is 1 or 2.
A nanoparticle complex comprising a nanoparticle core and an autoantigen peptide-MHC complex covalently coupled to the nanoparticle core, a. wherein the nanoparticle core has a diameter of less than 1 μm; and b. wherein the ratio of autoantigen peptide-MHC complexes coupled to the nanoparticle core is from 10:1 to 1000:1; and wherein the nanoparticle core comprises a metal, a metal oxide, a metal sulfide, a metal selenide, a magnetic material, gold, iron, or iron oxide. a. wherein the nanoparticle core has a diameter of less than 1 μm; and b. wherein the ratio of autoantigen peptide-MHC complexes coupled to the nanoparticle core is from 10:1 to 1000:1; and
A low-profile access port for subcutaneous placement in a patient, comprising: a body comprising a stem, the body including: two receiving cups, each receiving cup being funnel shaped to direct a catheter- bearing needle into an inlet port defined in the respective receiving cup; two conduits defined by the body, each conduit extending between the respective inlet port and a respective fluid outlet defined by the stem of the body, each conduit defining a bend distal to the respective inlet port and configured to prevent further distal advancement of the needle; two valve/seal assemblies, each valve/seal assembly disposed in the respective conduit distal to the respective bend and configured to enable passage of the catheter therethrough, each valve/seal assembly including: a seal component defining a central hole; and a valve including two intersecting slits; and each receiving cup including radiopaque indicia configured to enable identification of the access port via x-ray imaging, and each receiving cup including a cutout, wherein the receiving cups are joined to one another along the cutouts. two receiving cups, each receiving cup being funnel shaped to direct a catheter- bearing needle into an inlet port defined in the respective receiving cup; two conduits defined by the body, each conduit extending between the respective inlet port and a respective fluid outlet defined by the stem of the body, each conduit defining a bend distal to the respective inlet port and configured to prevent further distal advancement of the needle; two valve/seal assemblies, each valve/seal assembly disposed in the respective conduit distal to the respective bend and configured to enable passage of the catheter therethrough, each valve/seal assembly including: a seal component defining a central hole; and a valve including two intersecting slits; and a seal component defining a central hole; and a valve including two intersecting slits; and each receiving cup including radiopaque indicia configured to enable identification of the access port via x-ray imaging, and each receiving cup including a cutout, wherein the receiving cups are joined to one another along the cutouts.
A gemstone having a chaton cut in which there adjoins a flat table, a crown which has facets (11, 12, 13) that fall away inclinedly all around relative to the table, wherein the crown has main facets which extend substantially from the table as far as a girdle, at which the gemstone is of the largest transverse dimension and wherein adjoining the girdle below same is a pavilion comprising preferably pointedly converging facets (8, 9, 10), and wherein the gemstone consists of topaz, characterised in that the angle of the main facets with respect to a cross-sectional surface arranged parallel to the table is between 32.5° and 34.5°.