mhurhangee/ep-ind-claims huggingface dataset:
A formulation suitable for the repair of bone fractures, comprising (i) a peptide selected from the group consisting of PTH and a PTH fusion peptide; (ii) a granular material comprising a calcium mineral and (iii) a composition capable of forming a fibrin matrix under physiological conditions comprising a fibrinogen precursor component and thrombin precursor component, wherein the PTH or PTH fusion peptide is present in a concentration range of between 0.01 to 2 mg/mL fibrin matrix or precursor components forming the matrix, with the proviso that a concentration of 0.4mg/mL fibrin matrix or precursor components forming the matrix is not included. (i) a peptide selected from the group consisting of PTH and a PTH fusion peptide; (ii) a granular material comprising a calcium mineral and (iii) a composition capable of forming a fibrin matrix under physiological conditions comprising a fibrinogen precursor component and thrombin precursor component,
An injectable formulation of paracetamol comprising: 250 mg/ml paracetamol in a solvent system comprising (a) less than or equal to 40% w/v glycofurol, (b) less than or equal to 30% w/v lower chain alcohol selected from the group comprising ethyl alcohol, iso-propyl alcohol, or mixture thereof, (c) 2% to 4% w/v stabilizer selected from Plasdone C 17, Plasdone C 30 or its combination thereof, (d) optionally another solvent selected from N-methyl pyrrolidone, cyclodextrin, dimethylacetamide, transcutol, or mixtures thereof; and (e) water to make up the volume of the formulation. (a) less than or equal to 40% w/v glycofurol, (b) less than or equal to 30% w/v lower chain alcohol selected from the group comprising ethyl alcohol, iso-propyl alcohol, or mixture thereof, (c) 2% to 4% w/v stabilizer selected from Plasdone C 17, Plasdone C 30 or its combination thereof, (d) optionally another solvent selected from N-methyl pyrrolidone, cyclodextrin, dimethylacetamide, transcutol, or mixtures thereof; and (e) water to make up the volume of the formulation.
A transfer device for the transfer of fuel elements between an upper pool and a lower pool of a nuclear plant, e.g. an upper pool inside a reactor building and a lower pool of a fuel element store, wherein the fluid level of the upper pool lies above the fluid level of the lower pool, with a transfer pipe connecting the upper and lower pools and running at an inclination to the vertical, one or a plurality of transfer cages into which in each case one or a plurality of fuel elements can be inserted for the transfer through the transfer pipe, wherein the transfer pipe is fitted with one or a plurality of blocking elements (17, 18, 19), with which the pipe cross-section can be blocked, wherein the transfer device has a pull cable device with a pull cable guided within the transfer pipe for purposes of raising and lowering the transfer cages within the transfer pipe, characterised in that, at least one blocking element is provided as a partially-closing blocking element with a cable passage, through which the pull cable can be guided in the closed position.
A method for calculating a driving recommendation for a rail vehicle, in particular for a multiple-unit train or a locomotive, having an assistance system that is fitted in the rail vehicle and comprises a calculation unit and a data memory, in which are stored timetable information and route information for the route to be travelled and physical properties of the rail vehicle and, where appropriate, of wagons coupled to it, and comprising the following steps: - the detection of the current position of the rail vehicle, - the detection of the current speed of the rail vehicle, characterised by the following additional steps: - the detection of status parameters of the braking components of the rail vehicle at a given moment in time, - the comparison of these braking component status parameters with setpoint ranges for the braking component status parameters stored in the data memory, - the calculation the currently available braking force of the braking components on the basis of the comparison of the braking component status parameters, - the updating of the driving recommendation during travel taking into account the current position and speed of the rail vehicle and the currently available braking force of the braking components obtained from the comparison of the braking component status parameters. - the detection of the current position of the rail vehicle, - the detection of the current speed of the rail vehicle, - the detection of status parameters of the braking components of the rail vehicle at a given moment in time, - the comparison of these braking component status parameters with setpoint ranges for the braking component status parameters stored in the data memory, - the calculation the currently available braking force of the braking components on the basis of the comparison of the braking component status parameters, - the updating of the driving recommendation during travel taking into account the current position and speed of the rail vehicle and the currently available braking force of the braking components obtained from the comparison of the braking component status parameters.
A high strength hot-rolled steel sheet having excellent formability, comprising: by weight%, 0.1-0.15% of C, 2.0-3.0% of Si, 0.8-1.5% of Mn, 0.001-0.05% of P, 0.001-0.01% of S, 0.01-0.1% of AI, 0.7-1.7% of Cr, 0.0001-0.2% of Mo, 0.02-0.1% of Ti, 0.01-0.03% of Nb, 0.001-0.005% of B, 0.1-0.3% of V, 0.001-0.01% of N, and a balance of Fe and inevitable impurities, wherein [relational expression 1] and [relational expression 2] are satisfied, wherein tensile strength is 1180 MPa or more, a product (TS×EI) of tensile strength and elongation is 20,000 MPa% or more, and a product (TS×HER) of tensile strength and hole expandability is 30,000 MPa% or more, and wherein a microstructure of the hot-rolled steel sheet includes, by an area fraction, 5-15% of ferrite, 5-20% of retained austenite, and 10% or less of inevitable structure, in addition to a bainite matrix structure, 20 ≤ H γ ≤ 50 H γ = 194.5 − 428 C + 11 Si + 45 Mn + 35 Cr − 10 Mo − 107 Ti − 56 Nb − 70 V where [elemental symbol] indicates a content in weight% of each element, 0.7 ≤ a p ≤ 3.5 a p = Mo + Ti + Nb + V × C − 1 where [elemental symbol] indicates a content in weight% of each element, wherein the mechanical properties and the microstructure is measured as defined in the description. by weight%, 0.1-0.15% of C, 2.0-3.0% of Si, 0.8-1.5% of Mn, 0.001-0.05% of P, 0.001-0.01% of S, 0.01-0.1% of AI, 0.7-1.7% of Cr, 0.0001-0.2% of Mo, 0.02-0.1% of Ti, 0.01-0.03% of Nb, 0.001-0.005% of B, 0.1-0.3% of V, 0.001-0.01% of N, and a balance of Fe and inevitable impurities, wherein [relational expression 1] and [relational expression 2] are satisfied, wherein tensile strength is 1180 MPa or more, a product (TS×EI) of tensile strength and elongation is 20,000 MPa% or more, and a product (TS×HER) of tensile strength and hole expandability is 30,000 MPa% or more, and wherein a microstructure of the hot-rolled steel sheet includes, by an area fraction, 5-15% of ferrite, 5-20% of retained austenite, and 10% or less of inevitable structure, in addition to a bainite matrix structure, 20 ≤ H γ ≤ 50 H γ = 194.5 − 428 C + 11 Si + 45 Mn + 35 Cr − 10 Mo − 107 Ti − 56 Nb − 70 V where [elemental symbol] indicates a content in weight% of each element, 0.7 ≤ a p ≤ 3.5 a p = Mo + Ti + Nb + V × C − 1 where [elemental symbol] indicates a content in weight% of each element, wherein the mechanical properties and the microstructure is measured as defined in the description.
A sensor assembly for analysis of physical parameters and chemical constituents of small volume samples of bodily fluids with at least two analyte sensors comprising: a separation panel, the separation panel further comprising an upper surface with an upper fluid channel for passage there through of the sample volume as well as a lower surface with a lower fluid channel in fluid communication with the upper fluid channel; a first chip disposed atop the separation panel, the first chip including at least one analyte sensor disposed over the upper fluid channel and one or more electrical contact points (124, 125) for connecting the analyte sensor with an analyzer; and a second chip disposed beneath the separation panel, the second chip including at least one analyte sensor disposed over the lower fluid channel and one or more electrical contact points (156, 158) for connecting the analyte sensor with an analyzer; wherein the bodily fluid sample traverses through the entire extent of the upper and lower fluid channels in fluid communication with the sensors of the first and second chips. a separation panel, the separation panel further comprising an upper surface with an upper fluid channel for passage there through of the sample volume as well as a lower surface with a lower fluid channel in fluid communication with the upper fluid channel; a first chip disposed atop the separation panel, the first chip including at least one analyte sensor disposed over the upper fluid channel and one or more electrical contact points (124, 125) for connecting the analyte sensor with an analyzer; and a second chip disposed beneath the separation panel, the second chip including at least one analyte sensor disposed over the lower fluid channel and one or more electrical contact points (156, 158) for connecting the analyte sensor with an analyzer; wherein the bodily fluid sample traverses through the entire extent of the upper and lower fluid channels in fluid communication with the sensors of the first and second chips.
A mechanism for electrically contacting a printed circuit board to a battery cell composite system, wherein the mechanism has a. a printed circuit board which has copper as the conductor material, b. at least one bimetallic element which is fastened to the printed circuit board, i. which is designed as a composite component and has a copper layer and an aluminium layer which are designed in the form of annular discs, and ii. which has a through opening for the plugging through a fastening element, c. at least one cell connector made of aluminium for connecting the battery cell composite system to the printed circuit board, wherein the cell connector contacts the at least one bimetallic element with a connecting element, d. a fastening element for fastening the connecting element to the at least one bimetallic element, wherein the fastening element has a fastening thread, e. a mating fastening element cooperating with the fastening element which has a mating fastening thread which cooperates with the fastening thread of the fastening element. a. a printed circuit board which has copper as the conductor material, b. at least one bimetallic element which is fastened to the printed circuit board, i. which is designed as a composite component and has a copper layer and an aluminium layer which are designed in the form of annular discs, and ii. which has a through opening for the plugging through a fastening element, i. which is designed as a composite component and has a copper layer and an aluminium layer which are designed in the form of annular discs, and ii. which has a through opening for the plugging through a fastening element, c. at least one cell connector made of aluminium for connecting the battery cell composite system to the printed circuit board, wherein the cell connector contacts the at least one bimetallic element with a connecting element, d. a fastening element for fastening the connecting element to the at least one bimetallic element, wherein the fastening element has a fastening thread, e. a mating fastening element cooperating with the fastening element which has a mating fastening thread which cooperates with the fastening thread of the fastening element.
An acoustic device comprising - an array of acoustic membranes (1,2,3,4) formed on a foil; and - a controller configured to generate respective driving signals to vibrate the acoustic membranes (1,2,3,4) at their respective resonance frequency (Fr) for generating respective acoustic waves (W1,W2,W3,W4), wherein at least a first subset of the array is formed by in-phase pairs of adjacent acoustic membranes (1,2) connected to receive the same driving signal from the controller, wherein each in-phase pair comprises a respective first acoustic membrane and adjacent, second acoustic membrane, wherein the first acoustic membrane is distanced from the second acoustic membrane by a first intermediate section of the foil there between, wherein a first distance of the first intermediate section between the first acoustic membrane and the second acoustic membrane is a first integer number, plus-or-minus a first fraction of less than one-tenth, times a predetermined lamb wavelength (λs) of lamb waves (Ws) generated by the acoustic membranes (1,2) at the resonance frequency (Fr) traveling through the intermediate section between the adjacent acoustic membranes (1,2). - an array of acoustic membranes (1,2,3,4) formed on a foil; and - a controller configured to generate respective driving signals to vibrate the acoustic membranes (1,2,3,4) at their respective resonance frequency (Fr) for generating respective acoustic waves (W1,W2,W3,W4), wherein at least a first subset of the array is formed by in-phase pairs of adjacent acoustic membranes (1,2) connected to receive the same driving signal from the controller, wherein each in-phase pair comprises a respective first acoustic membrane and adjacent, second acoustic membrane, wherein the first acoustic membrane is distanced from the second acoustic membrane by a first intermediate section of the foil there between, wherein a first distance of the first intermediate section between the first acoustic membrane and the second acoustic membrane is a first integer number, plus-or-minus a first fraction of less than one-tenth, times a predetermined lamb wavelength (λs) of lamb waves (Ws) generated by the acoustic membranes (1,2) at the resonance frequency (Fr) traveling through the intermediate section between the adjacent acoustic membranes (1,2).
Method for laying an asphalt layer from asphalt material of selectable layer thickness and laying width by using a system comprising at least one road paver having at least one paving screed with compacting tools (17, 19, 21), at least one self-propelled compacting device, and, optionally, an asphalt mixing plant, wherein at least two compacting tools (17, 19, 21) of a group including at least one tamper (19, 20), at least one smoothing plate having a vibration apparatus (17, 18) and at least one hydraulically operated pressing bar (21, 22) are provided in the paving screed, the at least two compacting tools (17, 19, 21) following each other in laying-working travelling direction and acting in subsequent stages during a laying process, and wherein based on a known composition and/or temperature of the asphalt material delivered to the road paver each stage of the compacting tools (17, 19, 21) produces an actual degree of compaction in the asphalt layer, and thereafter the compacting device produces a predetermined final degree of compaction of the asphalt layer, including the following steps: a material-density-module obtains during the laying process data regarding the actual degree of compaction produced in the asphalt layer either by at least one stage or behind the last stage; these data are processed at least with reference to positions of the asphalt layer or of a construction site and are communicated in advance to the compacting device before the compacting device reaches the respective position of the asphalt layer; the compacting device or a plurality of compacting devices produces or produce with recourse to the communicated data the final degree of compaction based on the communicated data regarding the actual degree of compaction. a material-density-module obtains during the laying process data regarding the actual degree of compaction produced in the asphalt layer either by at least one stage or behind the last stage; these data are processed at least with reference to positions of the asphalt layer or of a construction site and are communicated in advance to the compacting device before the compacting device reaches the respective position of the asphalt layer; the compacting device or a plurality of compacting devices produces or produce with recourse to the communicated data the final degree of compaction based on the communicated data regarding the actual degree of compaction.
A composition comprising one or more muteins of apolipoprotein 1 in the dimeric and/or multimeric form, wherein said muteins are selected from the group of muteins having SEQ ID 2, 4, 6, 8, 10, 12, 14, 16, 18, 20, 22, 24, 26, 28, 30, 32, 34, 36, 38 and are produced in dimeric and/or in multimeric form in plant seeds, said composition comprising milk extracted from seeds of said plants and/or derivatives thereof, and wherein said one or more muteins are administered orally to patients in a daily dosage of from 0.2 to 4 mg/kg of body weight for use in the treatment of atherosclerosis.
A fluorescent material with garnet structure containing Gd, Al, Ga, and O at least, containing Lu and / or Y, and also containing Ce as an activator, wherein said fluorescent material is expressed as (Gd 1-x-z L x Ce z) 3+a (Al 1-u Ga u) 5-a O 12 wherein L is Lu and / or Y, wherein 0<a≦0.15, 0<x<1.0, 0.0003≦z≦0.0167, x+z<1.0, and 0.2≦u≦0.6. wherein L is Lu and / or Y, wherein 0<a≦0.15, 0<x<1.0, 0.0003≦z≦0.0167, x+z<1.0, and 0.2≦u≦0.6.
A bracing panel for bracing adjacent roof trusses, the bracing panel comprising engagement members, at least one spacing member extending between and connecting the engagement members together in spaced apart relation, and hangers connecting the spacing member to the engagement members, each hanger including a first portion, a second portion extending from an upper edge margin of the first portion in a first direction, and a third portion extending from a lower edge margin of the first portion in a second direction opposite the first direction, the third portion underlying said one engagement member and the spacing member, the third portion having nailing teeth embedded in said one engagement member and the spacing member, the first, second and third portions (42, 44, 46) being formed as a unitary one-piece structure, the second portion of the hanger and the third portion of the hanger lying in respective planes which are parallel to one another and spaced apart from one another.
The use of astaxanthin compositions in foodstuffs, food supplements or feedstuffs, where the astaxanthin composition comprises at least 90% by weight, based on the total weight of astaxanthin and astaxanthin derivatives in the composition, of monoesters of astaxanthin with a C18-1 fatty acid.
A dental laser treatment system comprising: a CO 2 laser source for providing a laser beam having an energy per pulse between 0.2 mJ and 9.8 mJ for a pulse width of 5 μsec and 50 μsec, respectively, a wavelength in a range from 9 μm to 12 μm and an incident beam diameter in a range from 0.02 mm to 8 mm incident upon a subsystem focusing element; and the subsystem focusing element, wherein the subsystem focusing element is structured and arranged to provide a focal length in a range from 25 mm to 200 mm and to taper the incident laser beam to (i) form a waist having a diameter smaller than the incident beam diameter in a range from 50 μm to 250 μm and (ii) provide a fluence in a range from 5 J/cm 2 to 10J/cm 2 at a depth of treatment distance between 5 mm and 50 mm centred about the waist. a CO 2 laser source for providing a laser beam having an energy per pulse between 0.2 mJ and 9.8 mJ for a pulse width of 5 μsec and 50 μsec, respectively, a wavelength in a range from 9 μm to 12 μm and an incident beam diameter in a range from 0.02 mm to 8 mm incident upon a subsystem focusing element; and the subsystem focusing element, wherein the subsystem focusing element is structured and arranged to provide a focal length in a range from 25 mm to 200 mm and to taper the incident laser beam to (i) form a waist having a diameter smaller than the incident beam diameter in a range from 50 μm to 250 μm and (ii) provide a fluence in a range from 5 J/cm 2 to 10J/cm 2 at a depth of treatment distance between 5 mm and 50 mm centred about the waist.
Device for displaying at least one magnitude on an oscillating weight for a self-winding timepiece movement, said device comprising one said oscillating weight and a means for displaying said at least one magnitude by comparison with a complementary display means which is integral with said oscillating weight, said display means being arranged to be subjected to a general pivoting motion resulting from the combination of a first pivoting motion synchronous with that of said oscillating weight, and a second pivoting motion resulting from the pivoting of said display means driven by said movement relative to said complementary display means, characterized in that said display means are arranged to pivot coaxially to said oscillating weight.
A composition comprising a phosphate ester-modified acrylic polyol, an isocyanate, and a catalyst, wherein: the catalyst is an organotin, organobismuth, organozinc, or a metal octoate, catalyst; the phosphate ester-modified acrylic polyol comprises greater than zero, but less than 1.0 wt.% phosphate modification, preferably comprises greater than zero, but less than 0.5 wt% phosphate modification, more preferably comprises greater than zero, but less than 0.3 wt% phosphate modification, even more preferably comprises greater than zero, but less than 0.2 wt% phosphate modification, wherein phosphate modification indicates the effective amount of (HP0 3) on acrylic polyol. the catalyst is an organotin, organobismuth, organozinc, or a metal octoate, catalyst; the phosphate ester-modified acrylic polyol comprises greater than zero, but less than 1.0 wt.% phosphate modification, preferably comprises greater than zero, but less than 0.5 wt% phosphate modification, more preferably comprises greater than zero, but less than 0.3 wt% phosphate modification, even more preferably comprises greater than zero, but less than 0.2 wt% phosphate modification, wherein phosphate modification indicates the effective amount of (HP0 3) on acrylic polyol.