mhurhangee/ep-ind-claims huggingface dataset:
In-line skate rail, comprising: - a rail frame, and - at least one reinforcing element (3 to 6) replaceably fixable at the rail frame, characterized in that - the stiffness of the rail up to an allowable minimum value is reduced, - the geometry of the reinforcing element (3 to 6) is adapted to the respective field of application, and is formed specifically as a rectangular profile, semi-circular profile, round profile, massive construction or hollow body, and - the reinforcing element (3 to 6) is fixable relative to the rail frame in a horizontal, vertical and/or transverse alignment, - wherein the application of the reinforcing element (3 to 6) on the outer side or inner side of the rail is achieved by fixing via additional screws, rivets or also adhesives or the rail is reinforced by inserting reinforcing elements (3 to 6) in a recess (9; 10) of the inner side or/and outer side of the rail frame. - a rail frame, and - at least one reinforcing element (3 to 6) replaceably fixable at the rail frame, - the stiffness of the rail up to an allowable minimum value is reduced, - the geometry of the reinforcing element (3 to 6) is adapted to the respective field of application, and is formed specifically as a rectangular profile, semi-circular profile, round profile, massive construction or hollow body, and - the reinforcing element (3 to 6) is fixable relative to the rail frame in a horizontal, vertical and/or transverse alignment, - wherein the application of the reinforcing element (3 to 6) on the outer side or inner side of the rail is achieved by fixing via additional screws, rivets or also adhesives or the rail is reinforced by inserting reinforcing elements (3 to 6) in a recess (9; 10) of the inner side or/and outer side of the rail frame.
A method for obtaining extra-chromosomal nucleic acids sequence(s) from cells and comprising the steps of: a) optionally cultivating cells comprising the extra-chromosomal nucleic acids sequence(s) of interest, b) disintegrating the cells by mixing the cells suspension with a lysis medium to form lysed cells, c) neutralizing the lysed cells by adding a neutralization solution to said lysed cells, preferably a neutralization solution composed of an acetic acid/acetate solution, to produce a cells lysate mixture comprising a soluble fraction and a precipitate, d) optionally further precipitating contaminants of the extra-chromosomal nucleic acids sequence(s) of interest, by mixing the cells lysate mixture with a solution containing one or more salt(s), wherein the salt(s) is (are) selected from the group consisting of CaCl 2, MgCl 2, ZnCl 2, SrCl 2, BaCl 2, LiCl, ammonium acetate, ammonium sulfate, sodium sulfate and magnesium sulfate or a mixture thereof, e) collecting the cells lysate mixture obtained from step c) or from step d), f) separating the soluble fraction comprising the extra-chromosomal nucleic acids sequence(s) of interest of the cells lysate mixture from the precipitate in a separation tank, and g) recovering the separated soluble fraction comprising the extra-chromosomal nucleic acids sequence(s) of interest, wherein the separation step f) comprises dissolving a gas in a liquid aqueous medium under a pressure higher than atmospheric pressure followed by injecting the liquid aqueous medium comprising the dissolved gas into the cells lysate mixture contained in the separation tank. a) optionally cultivating cells comprising the extra-chromosomal nucleic acids sequence(s) of interest, b) disintegrating the cells by mixing the cells suspension with a lysis medium to form lysed cells, c) neutralizing the lysed cells by adding a neutralization solution to said lysed cells, preferably a neutralization solution composed of an acetic acid/acetate solution, to produce a cells lysate mixture comprising a soluble fraction and a precipitate, d) optionally further precipitating contaminants of the extra-chromosomal nucleic acids sequence(s) of interest, by mixing the cells lysate mixture with a solution containing one or more salt(s), wherein the salt(s) is (are) selected from the group consisting of CaCl 2, MgCl 2, ZnCl 2, SrCl 2, BaCl 2, LiCl, ammonium acetate, ammonium sulfate, sodium sulfate and magnesium sulfate or a mixture thereof, e) collecting the cells lysate mixture obtained from step c) or from step d), f) separating the soluble fraction comprising the extra-chromosomal nucleic acids sequence(s) of interest of the cells lysate mixture from the precipitate in a separation tank, and g) recovering the separated soluble fraction comprising the extra-chromosomal nucleic acids sequence(s) of interest,
A method for controlling a variable speed drive supplying electric power of a voltage and frequency to a motor to drive a compressor operating within a compressor performance envelope, the method comprising: within a portion of the envelope, operating the drive with a dynamically changing relationship of said voltage to said frequency so as to operate the compressor over a range of relative suction and discharge conditions unavailable at a fixed default voltage to frequency relationship; characterised in that the operating comprises: operating at a first condition with a first torque and with a ratio of said voltage to said frequency having a first value and with a first current draw that is a maximum target current draw; and transitioning from the first condition to a second condition with a second torque, greater than the first torque, and with a ratio of said voltage to said frequency having a second value, greater than the first value. within a portion of the envelope, operating the drive with a dynamically changing relationship of said voltage to said frequency so as to operate the compressor over a range of relative suction and discharge conditions unavailable at a fixed default voltage to frequency relationship; characterised in that the operating comprises: operating at a first condition with a first torque and with a ratio of said voltage to said frequency having a first value and with a first current draw that is a maximum target current draw; and transitioning from the first condition to a second condition with a second torque, greater than the first torque, and with a ratio of said voltage to said frequency having a second value, greater than the first value. operating at a first condition with a first torque and with a ratio of said voltage to said frequency having a first value and with a first current draw that is a maximum target current draw; and transitioning from the first condition to a second condition with a second torque, greater than the first torque, and with a ratio of said voltage to said frequency having a second value, greater than the first value.
A protective cover having at least one frame element and at least one protective cover element, the protective cover element being permanently or detachably connected to the frame element, the protective cover having at least one slide rail and having at least one drive unit, the protective cover having at least one slide means disposed in the area of the slide rail and connected to the slide rail in a form-fitted and/or force-fit manner, the slide means being movable by the drive unit in a predefined movement area which is defined between a first position of the protective cover and a second position of the protective cover, the energy, force and/or momentum introduced into the slide means via the drive unit being convertible to a linear movement by means of the slide means and the slide rail, and the drive unit and/or the slide means being permanently or detachably connected to the frame element and/or to the protective cover element, the protective cover element being a pleated element adjustable in length, a blocker adjustable in length, a shutter or a protective cover segment, characterized in that the drive unit is a worm gear.
An alcohol-free dental appliance cleansing formulation free of antimicrobial agents and dispensed in the form of an aerated foam, which is a metastable emulsion comprising about 50-99% w/w of an aqueous phase, about 1-50% w/w of a water immiscible oily phase, the oily phase having a combination of one or more immiscible oils selected from sesame oil, soybean oil, canola oil, coconut oil, fractionated coconut oil, fish oil, mineral oil and one or more flavour oils, further comprising an organic acid selected from the group consisting of benzoic acid, sorbic acid, malic acid, citric acid and salicylic acid; and a surfactant selected from an anionic surfactant, a zwitterionic surfactant and a non-ionic surfactant, or a combination thereof.
Conveying system (1, 6) having a conveyor belt (2, 7) with a carrying-side covering sheet (3, 8) and a running-side covering sheet (4, 9) each made from a polymeric material with elastic properties and with an embedded tension member (13, 17) and with a transverse reinforcement (12, 16), which is arranged within the carrying-side and/or running-side covering sheet, wherein the running-side covering sheet is supported on carrying rollers (5, 11), to be precise to form a first section of a conveying system with a trough conveyor belt and a second section of a conveying system with a pipe conveyor belt, characterized in that the transverse reinforcement (12, 16) of the conveyor belt (2, 7) consists of a shape-memory material, the shape-memory material being of such a kind that the reversion to the original shape, referring to the outstretched position, is possible by it being subjected to the effect of an external impulse.
Process for producing a ready-to-use rubber mixture, wherein the ready-to-use rubber mixture is produced using a mixing apparatus having: - a first mixing chamber, where the first mixing chamber is bounded by a first chamber housing, a first introduction opening and a first ejection opening, and - a second mixing chamber disposed beneath the first mixing chamber, where the second mixing chamber is bounded by a second chamber housing, at least a second introduction opening and a second ejection opening, wherein the process comprises the following steps: A) mixing at least one rubber, at least one silanizing agent and silica in the first mixing chamber of the mixing apparatus, so as to form an at least partly silanized preliminary rubber mixture, where a silanization accelerator is added and mixed in addition to the silanizing agent, B) adding at least one oil or at least one liquid polymer to the at least partly silanized preliminary rubber mixture and mixing the at least one oil or at least one liquid polymer with the at least partly silanized preliminary rubber mixture in the first mixing chamber, so as to form a base rubber mixture, C) mixing one or more vulcanization chemicals and at least one further rubber in the second mixing chamber of the mixing apparatus, so as to form a preliminary vulcanization mixture, D) adding the base rubber mixture produced in step B) to the preliminary vulcanization mixture produced in step C) in the second mixing chamber and mixing the preliminary vulcanization mixture with the base rubber mixture, so as to form a ready-to-use rubber mixture. - a first mixing chamber, where the first mixing chamber is bounded by a first chamber housing, a first introduction opening and a first ejection opening, and - a second mixing chamber disposed beneath the first mixing chamber, where the second mixing chamber is bounded by a second chamber housing, at least a second introduction opening and a second ejection opening, A) mixing at least one rubber, at least one silanizing agent and silica in the first mixing chamber of the mixing apparatus, so as to form an at least partly silanized preliminary rubber mixture, where a silanization accelerator is added and mixed in addition to the silanizing agent, B) adding at least one oil or at least one liquid polymer to the at least partly silanized preliminary rubber mixture and mixing the at least one oil or at least one liquid polymer with the at least partly silanized preliminary rubber mixture in the first mixing chamber, so as to form a base rubber mixture, C) mixing one or more vulcanization chemicals and at least one further rubber in the second mixing chamber of the mixing apparatus, so as to form a preliminary vulcanization mixture, D) adding the base rubber mixture produced in step B) to the preliminary vulcanization mixture produced in step C) in the second mixing chamber and mixing the preliminary vulcanization mixture with the base rubber mixture, so as to form a ready-to-use rubber mixture.
A vehicle washing facility of the type comprising a support structure including a base bearing on the ground, a handling arm supported by the support structure mounted movably relative to the support structure, and a washing nozzle support arm movably coupled to said handling arm, wherein the support structure is a so-called fixed structure designed to be positioned in a stationary manner along at least one parking place for a vehicle to be washed, the handling arm being formed from a first arm section mounted on the support structure rotating around a so-called horizontal axis parallel to the bearing plate of the base on the ground and a second arm section, substantially orthogonal to said first arm section, and coupled to said first arm section by a pivot link with axis substantially parallel to said first arm section, characterized in that the nozzle support arm is a bent arm coupled to said second handling arm section on the one hand, by a link rotating around a first axis substantially orthogonal to the longitudinal axis of said second arm section to move the nozzle support arm between a position bent along said second arm section and an extension position in which it forms an extension of said second arm section, and on the other hand, by a link 11 rotating around a second axis substantially parallel to the longitudinal axis of the second arm section of the handling arm.
An SBEIIa polynucleotide from wheat encoding an SBEIIa polypeptide, wherein said SBEIIa polynucleotide encodes an SBEIIa polypeptide comprising SEQ ID NO: 2 except having a tryptophan to a stop mutation at amino acid position 436 of SEQ ID NO: 2.
A polypeptide comprising a modified receptor binding domain of Clostridial botulinum serotype B (B-H c)comprising one or more substitution mutations corresponding to substitution mutations in serotype B, strain 1, selected from the group consisting of E1191M; E1191I; E1191Q; E1191T; S1199F; S1199L; S1201V; V1118M; Y1183M; and combinations thereof, wherein the substitution mutation produces enhanced binding of the modified B-H c to human SytII as compared to an identical molecule lacking the substitution mutation.
An aerosol control system for a printer, comprising: a vacuum duct through which air may be sucked away from a printed side of a substrate leaving a print zone; and a pressure duct, distinct from the vacuum duct, through which air may be blown on to the printed side of the substrate leaving the print zone, wherein the pressure duct is positioned downstream, above the print zone, from the vacuum duct and configured to blow air diagonally upstream against a downstream side of the vacuum duct and down toward the substrate, characterized in that the pressure duct is configured such that the whole air flow from the pressure duct is directed directly onto an outer wall of the vacuum duct at the downstream side of the vacuum duct. a vacuum duct through which air may be sucked away from a printed side of a substrate leaving a print zone; and a pressure duct, distinct from the vacuum duct, through which air may be blown on to the printed side of the substrate leaving the print zone, wherein the pressure duct is positioned downstream, above the print zone, from the vacuum duct and configured to blow air diagonally upstream against a downstream side of the vacuum duct and down toward the substrate, characterized in that the pressure duct is configured such that the whole air flow from the pressure duct is directed directly onto an outer wall of the vacuum duct at the downstream side of the vacuum duct.
Method for detecting and/or characterizing molecular interactions between a ligand and its binding partner comprising: a) providing a nucleic acid structure comprising (i) a single-stranded nucleic acid molecule which is immobilized on a solid substrate and which does not contain repetitive sequences; and (ii) at least a first and a second single-stranded nucleic acid molecule each of which forms a double strand with a part of the immobilized single-stranded nucleic acid molecule, wherein a first ligand is attached to the first single-stranded nucleic acid molecule and a second ligand is attached to the second single-stranded nucleic acid molecule; or at least one single-stranded nucleic acid molecule which forms a double strand with at least a part of the immobilized single-stranded nucleic acid molecule and to which a first and a second ligand are attached at different locations; b) contacting the nucleic acid structure with a sample of the binding partner which is to be analyzed; and c) detecting and/or characterizing the interaction between the ligand(s) and the binding partner. a) providing a nucleic acid structure comprising (i) a single-stranded nucleic acid molecule which is immobilized on a solid substrate and which does not contain repetitive sequences; and (ii) at least a first and a second single-stranded nucleic acid molecule each of which forms a double strand with a part of the immobilized single-stranded nucleic acid molecule, wherein a first ligand is attached to the first single-stranded nucleic acid molecule and a second ligand is attached to the second single-stranded nucleic acid molecule; or at least one single-stranded nucleic acid molecule which forms a double strand with at least a part of the immobilized single-stranded nucleic acid molecule and to which a first and a second ligand are attached at different locations; (i) a single-stranded nucleic acid molecule which is immobilized on a solid substrate and which does not contain repetitive sequences; and (ii) at least a first and a second single-stranded nucleic acid molecule each of which forms a double strand with a part of the immobilized single-stranded nucleic acid molecule, wherein a first ligand is attached to the first single-stranded nucleic acid molecule and a second ligand is attached to the second single-stranded nucleic acid molecule; or at least one single-stranded nucleic acid molecule which forms a double strand with at least a part of the immobilized single-stranded nucleic acid molecule and to which a first and a second ligand are attached at different locations; b) contacting the nucleic acid structure with a sample of the binding partner which is to be analyzed; and c) detecting and/or characterizing the interaction between the ligand(s) and the binding partner.
Vehicle heating system, comprising a fuel-operated heater with a burner area, with a combustion air blower for feeding combustion air to the burner area, with a fuel pump for feeding fuel to the burner area and with an actuating device for actuating the combustion air blower and the fuel pump, wherein the actuating device is configured to actuate the combustion air blower and the fuel pump to carry out a fording operation upon receipt of fording state information, wherein at least one fording state information generation device is provided for generating and entering the fording state information into the actuating device, wherein the fording state information generation device comprises at least one fording state sensor, characterized in that at least one fording state sensor comprises a water level sensor, or/and in that a fording state sensor comprises a temperature sensor of the heater detecting a temperature of combustion exhaust gases and outputting a temperature signal representing information on the presence or quality of a combustion state.
A tunable laser for tuning a lasing mode based on light beams travelling through at least one block of channel waveguides with at least two tunable frequency combs, the tunable laser comprising: a frequency selective optical multiplexer comprising a first terminal for receiving/transmitting light, at least one block of channel waveguides, each channel waveguide having a reflectively coated first tail and a second tail, and an optical coupling element optically coupling the first terminal with the second tails of the channel waveguides of the at least one block of channel waveguides, each of the channel waveguides having a different length; a gain element generating a broad spectrum of light, the gain element coupling the first terminal of the frequency selective optical multiplexer with a reflective element; a phase element coupled to the gain element, wherein the phase element is configured to fine-tune the lasing mode and to offset a phase drift of the tunable laser; a plurality of optical tuners (102a, 102b), each one coupled to a respective plurality of branches of the at least one block of channel waveguides, wherein the plurality of optical tuners (102a, 102b) are configured to tune a lasing mode based on light beams travelling through the at least one block of channel waveguides. a frequency selective optical multiplexer comprising a first terminal for receiving/transmitting light, at least one block of channel waveguides, each channel waveguide having a reflectively coated first tail and a second tail, and an optical coupling element optically coupling the first terminal with the second tails of the channel waveguides of the at least one block of channel waveguides, each of the channel waveguides having a different length; a gain element generating a broad spectrum of light, the gain element coupling the first terminal of the frequency selective optical multiplexer with a reflective element; a phase element coupled to the gain element, wherein the phase element is configured to fine-tune the lasing mode and to offset a phase drift of the tunable laser; a plurality of optical tuners (102a, 102b), each one coupled to a respective plurality of branches of the at least one block of channel waveguides, wherein the plurality of optical tuners (102a, 102b) are configured to tune a lasing mode based on light beams travelling through the at least one block of channel waveguides.
A method of installing a seat (1315, 215) between a first surface and a second surface in a pressurized system, the method comprising: press-fitting the seat into a housing connectable to the first surface; sliding a threaded nut over the housing; crimping an end of the nut to the housing to provide a rotatably decoupled connection between the housing and the nut that allows the nut to freely rotate about the seat; and securing the nut to the second surface, wherein due to the rotatably decoupled connection securement of the nut creates a pressure tight seal between the first and second surfaces via rotation of the nut without applying torque to the seat. press-fitting the seat into a housing connectable to the first surface; sliding a threaded nut over the housing; crimping an end of the nut to the housing to provide a rotatably decoupled connection between the housing and the nut that allows the nut to freely rotate about the seat; and securing the nut to the second surface, wherein due to the rotatably decoupled connection securement of the nut creates a pressure tight seal between the first and second surfaces via rotation of the nut without applying torque to the seat.