mhurhangee/ep-ind-claims huggingface dataset:
A locatable slab assembly for overlying a manhole cover which is located beneath a lowermost surface of a pavement, and which defines a center line, said locatable slab assembly being liftable by a lifting device which has a gripped head and a connected end segment that is opposite to the gripped head and that has an outer threaded surface, said locatable slab assembly comprising a slab body which is configured to fully overlie the manhole cover, and which defines a central line in line with the center line, said slab body 20 has an upward surface and a downward surface, wherein said slab body 20 further has a cavity extending downwardly from said upward surface along the central line to terminate at a cavity bottom, and a bore extending downwardly from said cavity bottom along the central line, said locatable slab assembly further characterized by: a tubular member fitted in said bore, and having an inner threaded region which surrounds the central line, and which defines a lower chamber extending to be in spatial communication with said cavity along the central line, said inner threaded region being configured to be brought into threaded engagement with the outer threaded surface, so as to permit said locatable slab assembly to be lifted by the lifting device; a protective plug having an enlarged head and a plug body which is configured to be inserted into said cavity to permit said enlarged head to be disposed outwardly of said slab body, said plug body being formed with an upper chamber extending to be in spatial communication with said lower chamber along the central line; and an electronic marker having an upper segment disposed in said upper chamber and a lower segment disposed in said lower chamber, said electronic marker being configured to permit a region of the pavement in alignment with the center line of the manhole cover to be located. a tubular member fitted in said bore, and having an inner threaded region which surrounds the central line, and which defines a lower chamber extending to be in spatial communication with said cavity along the central line, said inner threaded region being configured to be brought into threaded engagement with the outer threaded surface, so as to permit said locatable slab assembly to be lifted by the lifting device; a protective plug having an enlarged head and a plug body which is configured to be inserted into said cavity to permit said enlarged head to be disposed outwardly of said slab body, said plug body being formed with an upper chamber extending to be in spatial communication with said lower chamber along the central line; and an electronic marker having an upper segment disposed in said upper chamber and a lower segment disposed in said lower chamber, said electronic marker being configured to permit a region of the pavement in alignment with the center line of the manhole cover to be located.
Method for setting up a device for treating tissue by means of at least one at least bipolar electrode having two individual electrodes arranged at an electrode spacing L, wherein the electrode spacing L is the spacing between the centroids of the individual electrodes, wherein the electrode spacing L of the bipolar electrode is specified in dependence - upon the thickness d of a dermal layer of the tissue at the location to be treated or data corresponding thereto and - upon an electrical reflection coefficient k of the tissue at the boundary of the dermal layer remote from the surface of the tissue at the location to be treated or data corresponding thereto, wherein a plurality of applicators are provided for selection, each applicator having at least one bipolar electrode and the electrode spacing L of the bipolar electrodes of the said applicators being different, and wherein the electrode spacing L is specified by specifying a particular applicator from the plurality of applicators for use, and that applicator is selected for the treatment at the treatment location, wherein the electrode spacing L is specified in dependence upon the thickness d, a computer unit being provided into which the thickness d is input by a user and the computer unit being programmed to specify the electrode spacing L in dependence upon the thickness d, and an ultrasonic thickness measurement unit is provided and the thickness d of the tissue at the location of use is measured by means of ultrasonic measurement, and an analysis unit is provided in order to determine the thickness d from the measurement data of the thickness measurement, the result of the thickness measurement being used automatically for determining the electrode spacing L. - upon the thickness d of a dermal layer of the tissue at the location to be treated or data corresponding thereto and - upon an electrical reflection coefficient k of the tissue at the boundary of the dermal layer remote from the surface of the tissue at the location to be treated or data corresponding thereto, wherein the electrode spacing L is specified by specifying a particular applicator from the plurality of applicators for use, and that applicator is selected for the treatment at the treatment location, wherein the electrode spacing L is specified in dependence upon the thickness d, a computer unit being provided into which the thickness d is input by a user and the computer unit being programmed to specify the electrode spacing L in dependence upon the thickness d, and an ultrasonic thickness measurement unit is provided and the thickness d of the tissue at the location of use is measured by means of ultrasonic measurement, and an analysis unit is provided in order to determine the thickness d from the measurement data of the thickness measurement, the result of the thickness measurement being used automatically for determining the electrode spacing L.
A method for producing an enriched cystathionine β-synthase solution, wherein the cystathionine β-synthase solution comprises a naturally occurring, chemically cleaved or genetically engineered truncated cystathionine β-synthase protein, the method comprising: (a) providing a cystathionine β-synthase-containing solution comprising one or a plurality of impurities; (b) performing chromatographic separation of the cystathionine β-synthase-containing solution using an immobilized metal affinity chromatography (IMAC) resin charged with zinc; and (c) performing at least one additional chromatographic separation selected from the group consisting of: hydrophobic interaction chromatography, ceramic hydroxyapatite (CHAP), and ion exchange chromatography, thereby producing the enriched cystathionine β-synthase solution. (a) providing a cystathionine β-synthase-containing solution comprising one or a plurality of impurities; (b) performing chromatographic separation of the cystathionine β-synthase-containing solution using an immobilized metal affinity chromatography (IMAC) resin charged with zinc; and (c) performing at least one additional chromatographic separation selected from the group consisting of: hydrophobic interaction chromatography, ceramic hydroxyapatite (CHAP), and ion exchange chromatography, thereby producing the enriched cystathionine β-synthase solution.
A proton conducting polymer comprising: (a) a proton donating polymer selected from one or more of the group consisting of sulfonated polysulfones, sulfonated polyether ketones, sulfonated polystyrenes, sulfonated polyphenylenes, sulfonated trifluorostyrenes, sulfonated polyphosphazenes, sulfonated fluoropolymers, sulfonated perfluoropolymers, polyphenyl sulfides, polymers containing one or more fluorinated sulfonamide groups, sulfonated polyamides, sulfonated polyazoles, sulfonated silicones, nafion, and any derivatives thereof; and (a) a Lewis acid selected from one or more of the group consisting of Sc(OTf) 3, Y(OTf) 3, La(OTf) 3, Sc(ClO 4) 3, Pb(ClO 4) 3, and Fe(OSO 2 CF 3) 2, Ce(OTf) 3, Pr(OTf) 3, ScCl 3, YCl 3, YbCl 3, Ce(ClO 4) 3, Y(ClO 4) 3, La(ClO 4) 3, Cu(ClO 4) 3, Zr(ClO 4) 3, Cd(ClO 4) 2, Fe(ClO 4) 2, and FeCl 2. (a) a proton donating polymer selected from one or more of the group consisting of sulfonated polysulfones, sulfonated polyether ketones, sulfonated polystyrenes, sulfonated polyphenylenes, sulfonated trifluorostyrenes, sulfonated polyphosphazenes, sulfonated fluoropolymers, sulfonated perfluoropolymers, polyphenyl sulfides, polymers containing one or more fluorinated sulfonamide groups, sulfonated polyamides, sulfonated polyazoles, sulfonated silicones, nafion, and any derivatives thereof; and (a) a Lewis acid selected from one or more of the group consisting of Sc(OTf) 3, Y(OTf) 3, La(OTf) 3, Sc(ClO 4) 3, Pb(ClO 4) 3, and Fe(OSO 2 CF 3) 2, Ce(OTf) 3, Pr(OTf) 3, ScCl 3, YCl 3, YbCl 3, Ce(ClO 4) 3, Y(ClO 4) 3, La(ClO 4) 3, Cu(ClO 4) 3, Zr(ClO 4) 3, Cd(ClO 4) 2, Fe(ClO 4) 2, and FeCl 2.
A cell analyzer comprising: a cell dispersion unit (51, 55) which is configured to cause aggregated cells in a biological specimen to be dispersed, through a first dispersion process and a second dispersion process which is different from the first dispersion process; a detection unit which is configured to detect characteristics information reflecting properties of the cells in the biological specimen on which the first dispersion process and the second dispersion process have been performed; and an analysis unit which is configured to analyze the cells in the biological specimen, based on a detection result from the detection unit, wherein the first dispersion process is a shearing force applying process of applying a shearing force to the aggregated cells, and the second dispersion process is an ultrasonic dispersion process of dispersing the aggregated cells, by using ultrasonic waves, characterized in that: the cell analyzer comprises a cell separation/substitution unit which is configured to receive the biological specimen that has been subjected to the first dispersion process, is configured to discriminate between cells to be measured and other cells in the received biological specimen, and is configured to condense the biological specimen containing the cells to be measured; and the cell dispersion unit (51, 55) is configured to perform the second dispersion process on the biological specimen condensed by the cell separation/substitution unit. a cell dispersion unit (51, 55) which is configured to cause aggregated cells in a biological specimen to be dispersed, through a first dispersion process and a second dispersion process which is different from the first dispersion process; a detection unit which is configured to detect characteristics information reflecting properties of the cells in the biological specimen on which the first dispersion process and the second dispersion process have been performed; and an analysis unit which is configured to analyze the cells in the biological specimen, based on a detection result from the detection unit, wherein the first dispersion process is a shearing force applying process of applying a shearing force to the aggregated cells, and the second dispersion process is an ultrasonic dispersion process of dispersing the aggregated cells, by using ultrasonic waves, characterized in that: the cell analyzer comprises a cell separation/substitution unit which is configured to receive the biological specimen that has been subjected to the first dispersion process, is configured to discriminate between cells to be measured and other cells in the received biological specimen, and is configured to condense the biological specimen containing the cells to be measured; and the cell dispersion unit (51, 55) is configured to perform the second dispersion process on the biological specimen condensed by the cell separation/substitution unit.
An architectural wall system, comprising: a wall (102,152,202,302) having a first side and a second side opposite the first side; and an adjustment mechanism (104,154,204,206,308) attached between a first end of the wall (102,152,202,302) and a permanent structure (108,110) that allows the wall (102,152,202,302) to be selectively adjusted in position relative to the permanent structure (108,110) such that a vertical positioning of the wall (102,152,202,302) is achieved, the adjustment mechanism (104,154,204,206,308) comprising: a first rotatable member positioned on the first side of the wall (102,152,202,302), the first rotatable member including a first support portion; and a second rotatable member positioned on the second side of the wall (102,152,202,302), the second rotatable member including a second support portion, wherein the first support portion and the second support portion pinch the wall (102,152,202,302) therebetween; characterised in that one or more of the first rotatable member or the second rotatable member is configured to be secured at least partially within at least one opening (320, 322) in the permanent structure (108, 110). a wall (102,152,202,302) having a first side and a second side opposite the first side; and an adjustment mechanism (104,154,204,206,308) attached between a first end of the wall (102,152,202,302) and a permanent structure (108,110) that allows the wall (102,152,202,302) to be selectively adjusted in position relative to the permanent structure (108,110) such that a vertical positioning of the wall (102,152,202,302) is achieved, the adjustment mechanism (104,154,204,206,308) comprising: a first rotatable member positioned on the first side of the wall (102,152,202,302), the first rotatable member including a first support portion; and a second rotatable member positioned on the second side of the wall (102,152,202,302), the second rotatable member including a second support portion, a first rotatable member positioned on the first side of the wall (102,152,202,302), the first rotatable member including a first support portion; and a second rotatable member positioned on the second side of the wall (102,152,202,302), the second rotatable member including a second support portion, wherein the first support portion and the second support portion pinch the wall (102,152,202,302) therebetween; characterised in that one or more of the first rotatable member or the second rotatable member is configured to be secured at least partially within at least one opening (320, 322) in the permanent structure (108, 110).
1. Valve for a liquid gas bottle with a gas consumer connection piece, with a gas inlet opening on the underside, with a gas conducting connection (17, 18, 19) between the gas inlet opening and the gas consumer connection piece, with a rotary handle, which can be turned into an open position and into a closed position, wherein in the open position gas can flow from the gas inlet opening to the gas consumer connection piece and in the closed position no gas can flow from the gas inlet opening to the gas consumer connection piece, with a closable opening on the upper side of the valve, with a gas conducting connection (13, 14) which connects the closable opening on the upper side with an opening at the underside in such a way that refilling a connected gas bottle with gas through the underside and through the closable opening is possible, characterized in that the edge of the closable opening is part of the rotary handle.
A data creation method comprising: an autofluorescence data generation step of placing a focus of excitation light having a predetermined wavelength at one coordinate (X, Y; SP) on a predetermined focal plane (P F), irradiating a sample positioned at the coordinate (X, Y; SP) with the excitation light to obtain autofluorescence emitted from the sample, and generating autofluorescence data including intensity data and/or spectrum data of the autofluorescence; a reflected light data generation step of irradiating the coordinate (X, Y; SP) on the predetermined focal plane (P F) with illumination light to obtain reflected light scattered by the sample, and generating intensity data of the reflected light; and a correspondence data creation step of creating correspondence data associating the autofluorescence data and the intensity data of the reflected light on the coordinate (X, Y; SP) on the predetermined focal plane (P F), wherein the data creation method is performed on a plurality of different coordinates (X, Y; SP) on the predetermined focal plane (P F), and the data creation method is performed on a plurality of different focal planes (P F 1, P F 2, P F 3, P F 4, P F 5, P F 6, P F 7). an autofluorescence data generation step of placing a focus of excitation light having a predetermined wavelength at one coordinate (X, Y; SP) on a predetermined focal plane (P F), irradiating a sample positioned at the coordinate (X, Y; SP) with the excitation light to obtain autofluorescence emitted from the sample, and generating autofluorescence data including intensity data and/or spectrum data of the autofluorescence; placing a focus of excitation light having a predetermined wavelength at one coordinate (X, Y; SP) on a predetermined focal plane (P F), irradiating a sample positioned at the coordinate (X, Y; SP) with the excitation light to obtain autofluorescence emitted from the sample, and generating autofluorescence data including intensity data and/or spectrum data of the autofluorescence; a reflected light data generation step of irradiating the coordinate (X, Y; SP) on the predetermined focal plane (P F) with illumination light to obtain reflected light scattered by the sample, and generating intensity data of the reflected light; and irradiating the coordinate (X, Y; SP) on the predetermined focal plane (P F) with illumination light to obtain reflected light scattered by the sample, and generating intensity data of the reflected light; and a correspondence data creation step of creating correspondence data associating the autofluorescence data and the intensity data of the reflected light on the coordinate (X, Y; SP) on the predetermined focal plane (P F), wherein the data creation method is performed on a plurality of different coordinates (X, Y; SP) on the predetermined focal plane (P F), and the data creation method is performed on a plurality of different focal planes (P F 1, P F 2, P F 3, P F 4, P F 5, P F 6, P F 7).
A phase-based time-of-flight system that includes a primary optical source that emits optical energy S out having a modulation frequency ω and a phase φ, wherein the time-of-flight system detects S in, which is at least a fraction of emitted said optical energy that is reflected-back by a target object a distance Z away, and determines said distance Z from a shift in said phase φ in S in, characterized in said time-of-flight system further including: at least one auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4), wherein optical energy emitted by each said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is substantially indistinguishable to said target object in modulation frequency and phase from the optical energy S out emitted by said primary optical source; wherein at least one said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is a wireless optical emitting unit disposed to receive a portion of said optical energy S out emitted by said primary optical source, said S out having a modulation frequency and a phase shift as received by said wireless optical emitting unit, said wireless optical emitting unit generating output optical energy S out-n dynamically locked in modulation frequency and phase φ to the optical energy received by said wireless optical emitting unit; and wherein operation of said at least one wireless optical emitting unit increases effective power of optical energy reflected back toward said time-of-flight system by said target object. at least one auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4), wherein optical energy emitted by each said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is substantially indistinguishable to said target object in modulation frequency and phase from the optical energy S out emitted by said primary optical source; wherein at least one said auxiliary optical emitting unit (220-1, 220-2, 220-3, 220-4) is a wireless optical emitting unit disposed to receive a portion of said optical energy S out emitted by said primary optical source, said S out having a modulation frequency and a phase shift as received by said wireless optical emitting unit, said wireless optical emitting unit generating output optical energy S out-n dynamically locked in modulation frequency and phase φ to the optical energy received by said wireless optical emitting unit; and wherein operation of said at least one wireless optical emitting unit increases effective power of optical energy reflected back toward said time-of-flight system by said target object.
A method of manufacture of a paper coating colour intended for inkjet printing paper, including the steps consisting in: 1) mixing an aqueous suspension of a mineral filler containing a dispersing agent with at least one binder, 2) introducing into the medium at least one organic salt or one mineral salt or at least one cationic compound, and 3) introducing into the medium at least one hydrosoluble polymer consisting, expressed as a % by weight of each of its monomers, of: a) 5% to 40%, preferentially 5% to 20% of (meth)acrylic acid, b) 60% to 95%, preferentially 80% to 95%, of at least one monomer of formula: R- m- n -R' where R is a polymerisable function chosen from among the methacrylate and methacrylurethanne function, EO and PO designate respectively ethylene and propylene oxides, m and n are 2 integers at least one of which is non-zero and are comprised between 0 and 100 inclusively, R' designates hydrogen or an alkyl group with from 1 to 4 carbon atoms, 1) mixing an aqueous suspension of a mineral filler containing a dispersing agent with at least one binder, 2) introducing into the medium at least one organic salt or one mineral salt or at least one cationic compound, and 3) introducing into the medium at least one hydrosoluble polymer consisting, expressed as a % by weight of each of its monomers, of: a) 5% to 40%, preferentially 5% to 20% of (meth)acrylic acid, b) 60% to 95%, preferentially 80% to 95%, of at least one monomer of formula: R- m- n -R' where R is a polymerisable function chosen from among the methacrylate and methacrylurethanne function, EO and PO designate respectively ethylene and propylene oxides, m and n are 2 integers at least one of which is non-zero and are comprised between 0 and 100 inclusively, R' designates hydrogen or an alkyl group with from 1 to 4 carbon atoms, a) 5% to 40%, preferentially 5% to 20% of (meth)acrylic acid, b) 60% to 95%, preferentially 80% to 95%, of at least one monomer of formula: R- m- n -R' where R is a polymerisable function chosen from among the methacrylate and methacrylurethanne function, EO and PO designate respectively ethylene and propylene oxides, m and n are 2 integers at least one of which is non-zero and are comprised between 0 and 100 inclusively, R' designates hydrogen or an alkyl group with from 1 to 4 carbon atoms,