mhurhangee/ep-ind-claims huggingface dataset:
The combustible mixture, consisting of the solid and liquid phases, characterized in that the solid phase comprises: aluminium powder; at least one M 1 X 2, where M 1 can be any metal in oxidation state +2, and X any halogen; M 2 CO 3, where M 2 can be any metal in oxidation state +2; zinc ammonia chloride; SiO 2; and quick lime; and the liquid phase comprises: at least one C 1 to C 6 carboxylic acid, or at least one anhydride of the said carboxylic acids, or at least one its ester or amid; methylcellulose; and formaldehyde, i.e. its commercially available solution - formalin; and water,where the share of solid phase in the mixture varies between 32% w/w and 46% w/w, and that of the liquid phase between 54% w/w and 68% w/w, whereas the solid phase components are present in the following weight percentages: aluminium powder 3% to 10% M 1 X 2 1% to 4% M 2 CO 3 1% to 3% zinc ammonia chloride 2% to 5% SiO 2 3% to 8% quick lime 70% to 90%, and the liquid phase components are present in the following weight percentages: at least one carboxylic acid, or at least one anhydride of carboxylic acid, or at least one its ester or amid 10% to 27%; methylcellulose 20% - 40%; formaldehyde, 1% to 10%; and the rest up to 100% is water. aluminium powder; at least one M 1 X 2, where M 1 can be any metal in oxidation state +2, and X any halogen; M 2 CO 3, where M 2 can be any metal in oxidation state +2; zinc ammonia chloride; SiO 2; and quick lime; and the liquid phase comprises: at least one C 1 to C 6 carboxylic acid, or at least one anhydride of the said carboxylic acids, or at least one its ester or amid; methylcellulose; and formaldehyde, i.e. its commercially available solution - formalin; at least one C 1 to C 6 carboxylic acid, or at least one anhydride of the said carboxylic acids, or at least one its ester or amid; methylcellulose; and formaldehyde, i.e. its commercially available solution - formalin; and water,where the share of solid phase in the mixture varies between 32% w/w and 46% w/w, and that of the liquid phase between 54% w/w and 68% w/w, whereas the solid phase components are present in the following weight percentages: aluminium powder 3% to 10% M 1 X 2 1% to 4% M 2 CO 3 1% to 3% zinc ammonia chloride 2% to 5% SiO 2 3% to 8% quick lime 70% to 90%, and the liquid phase components are present in the following weight percentages: at least one carboxylic acid, or at least one anhydride of carboxylic acid, or at least one its ester or amid 10% to 27%; methylcellulose 20% - 40%; formaldehyde, 1% to 10%; and the rest up to 100% is water. at least one carboxylic acid, or at least one anhydride of carboxylic acid, or at least one its ester or amid 10% to 27%; methylcellulose 20% - 40%; formaldehyde, 1% to 10%; and the rest up to 100% is water.
A chopper assembly for harvesting equipment, said chopper assembly comprising: a rotary chopper device; a chopper grate assembly spaced from the rotary chopper device to form a passageway for crop residue, said chopper grate assembly including a plurality of slots (60,60',60",60'") extending in the direction of crop residue flow through said passageway; a knife bank assembly including a plurality of knife elements aligned with and insertable in said slots (60,60',60",60'"), said knife bank assembly being displaceable toward a position where said knife elements are fully inserted through said slots (60,60',60",60'") into said passageway and a position where they are substantially clear of said passageway; characterised in that said slots (60,60',60",60'") have an expanded width at the point at which the knife elements first enter the grate assembly slots (60,60',60",60'") to prevent accumulation of debris. a rotary chopper device; a chopper grate assembly spaced from the rotary chopper device to form a passageway for crop residue, said chopper grate assembly including a plurality of slots (60,60',60",60'") extending in the direction of crop residue flow through said passageway; a knife bank assembly including a plurality of knife elements aligned with and insertable in said slots (60,60',60",60'"), said knife bank assembly being displaceable toward a position where said knife elements are fully inserted through said slots (60,60',60",60'") into said passageway and a position where they are substantially clear of said passageway; characterised in that said slots (60,60',60",60'") have an expanded width at the point at which the knife elements first enter the grate assembly slots (60,60',60",60'") to prevent accumulation of debris.
A method of producing a filled snack product comprising the steps of: disposing a plurality of filling lines on a first flat surface of a first sheet, each of the plurality of filling lines disposed in spaced relationship to define a void between each of the adjacent filling lines; placing the second sheet over the first sheet to sandwich the plurality of filling lines between the first and second sheets and form a laminate; docking the laminate after the second sheet is placed over the first sheet to create a plurality of docking holes which each extend through the first and second sheets of the laminate for the release of steam or gas during heating; pinning the first and second sheets together at the voids between the plurality of spaced filling lines to secure the first and second sheets to each other and minimize puffing of the laminate during heating; heating the laminate.; and dividing the laminate into a plurality of individual filled snack products, each of the individual filled snack products having a plurality of filling lines and a plurality of docking holes. disposing a plurality of filling lines on a first flat surface of a first sheet, each of the plurality of filling lines disposed in spaced relationship to define a void between each of the adjacent filling lines; placing the second sheet over the first sheet to sandwich the plurality of filling lines between the first and second sheets and form a laminate; docking the laminate after the second sheet is placed over the first sheet to create a plurality of docking holes which each extend through the first and second sheets of the laminate for the release of steam or gas during heating; pinning the first and second sheets together at the voids between the plurality of spaced filling lines to secure the first and second sheets to each other and minimize puffing of the laminate during heating; heating the laminate.; and dividing the laminate into a plurality of individual filled snack products, each of the individual filled snack products having a plurality of filling lines and a plurality of docking holes.
Method for determining a position and an orientation of an endoscope (1, 15) in a cavity in a technical object, wherein the endoscope (1, 15) comprises an elongated shaft (2, 17), which extends into the cavity through an endoscopic insertion device connected to an access opening of the cavity, wherein an acceleration acting on the endoscope (1, 15) is detected by means of at least one acceleration sensor associated with the endoscope (1, 15) and a rotational movement of the endoscope (1, 15) is detected by means of at least one rotation rate sensor associated with the endoscope (1, 15), wherein an insertion movement of the shaft (2, 17) relative to the insertion device is detected with at least one insertion sensor associated with the insertion device and wherein a position and an orientation of the endoscope (1, 15) is determined on the basis of the detected acceleration, rotational movement and insertion movement.
Pulverulent mixture containing one nitrile rubber which has repeating units of at least one α,β-unsaturated nitrile monomer and at least one conjugated diene monomer and has an emission ratio E according to the formula of less than or equal to 0.25 mg/(kg ∗ Mooney units), E = volatile constituents Mooney viscosity × Nitrile content 100 where [volatile constituents] is the concentration of volatile constituents in mg/kg of nitrile rubber determined by means of a TDS-GC/MS examination in accordance with the VDA 278 recommendation (09.2002 version) in the range from 28.4 minutes to 34.0 minutes, [Mooney viscosity] is the Mooney viscosity ML 1 + 4 at 100°C of the nitrile rubber determined in accordance with ASTM D 1646 and reported in Mooney units, and [nitrile content] is the dimensionless content of the α,β-unsaturated nitrile in the nitrile rubber, determined in % by weight by the Kjeldahl method in accordance with DIN 53 625, and one or more release agents, characterized in that the pulverulent mixture has an average particle diameter D a in the range from 0.01 to 4 mm. one nitrile rubber which has repeating units of at least one α,β-unsaturated nitrile monomer and at least one conjugated diene monomer and has an emission ratio E according to the formula of less than or equal to 0.25 mg/(kg ∗ Mooney units), E = volatile constituents Mooney viscosity × Nitrile content 100 where [volatile constituents] is the concentration of volatile constituents in mg/kg of nitrile rubber determined by means of a TDS-GC/MS examination in accordance with the VDA 278 recommendation (09.2002 version) in the range from 28.4 minutes to 34.0 minutes, [Mooney viscosity] is the Mooney viscosity ML 1 + 4 at 100°C of the nitrile rubber determined in accordance with ASTM D 1646 and reported in Mooney units, and [nitrile content] is the dimensionless content of the α,β-unsaturated nitrile in the nitrile rubber, determined in % by weight by the Kjeldahl method in accordance with DIN 53 625, and [volatile constituents] is the concentration of volatile constituents in mg/kg of nitrile rubber determined by means of a TDS-GC/MS examination in accordance with the VDA 278 recommendation (09.2002 version) in the range from 28.4 minutes to 34.0 minutes, [Mooney viscosity] is the Mooney viscosity ML 1 + 4 at 100°C of the nitrile rubber determined in accordance with ASTM D 1646 and reported in Mooney units, and [nitrile content] is the dimensionless content of the α,β-unsaturated nitrile in the nitrile rubber, determined in % by weight by the Kjeldahl method in accordance with DIN 53 625, one or more release agents,
A compound having Formula IA or Formula II: or a salt, or ester thereof wherein X is O, S, or NH; A is amino, dimethylamino or heterocyclyl; Z is N or CH; R 3, R 4, R 5, R 6, R 8, R 13, and R 14 are each individually and independently hydrogen, alkyl, halogen, nitro, cyano, hydroxy, amino, mercapto, formyl, carboxy, carbamoyl, alkoxy, alkylthio, alkylamino, (alkyl) 2 amino, alkylsulfinyl, alkylsulfonyl, arylsulfonyl, carbocyclyl, aryl, or heterocyclyl; R 7 and R 9 are a halogen. X is O, S, or NH; A is amino, dimethylamino or heterocyclyl; Z is N or CH; R 3, R 4, R 5, R 6, R 8, R 13, and R 14 are each individually and independently hydrogen, alkyl, halogen, nitro, cyano, hydroxy, amino, mercapto, formyl, carboxy, carbamoyl, alkoxy, alkylthio, alkylamino, (alkyl) 2 amino, alkylsulfinyl, alkylsulfonyl, arylsulfonyl, carbocyclyl, aryl, or heterocyclyl; R 7 and R 9 are a halogen.
High-performance torchable thermal insulating panel for buildings roofs of the multi-layer type comprising a sandwich structure being provided with an intermediate layer of rigid polyurethane foam of the PUR or PIR type, whose upper face and lower face are each provided with a multi-layer coating, where the multi-layer coating is gas-tight and torchable and is coupled to the intermediate insulating layer of the thermal insulating panel at least in correspondence of the upper face and of the lower face characterised in that the multi-layer coating is made up of the following layers coupled in sequence: a) at least one layer consisting of a metallized polyester film; b) at least one layer consisting of a polyethylene film; c) at least one layer consisting of a moisture-proof paper sheet; d) at least one layer consisting of a film of bituminous compound of polymer bitumen; e) at least one layer consisting of a non-woven polypropylene fabric; wherein the layer consisting of the metallized polyester film is coupled to the intermediate insulating layer. a) at least one layer consisting of a metallized polyester film; b) at least one layer consisting of a polyethylene film; c) at least one layer consisting of a moisture-proof paper sheet; d) at least one layer consisting of a film of bituminous compound of polymer bitumen; e) at least one layer consisting of a non-woven polypropylene fabric;
Tridentate chelators of the type tris(pyrazolyl)methane (R 1 C(pz*) 3) of the formula: wherein each of R 1, R 2, R 3 and R 4 is independently hydrogen; a linear or branched, saturated or unsaturated C 1 to C 9 alkyl; a saturated or unsaturated carbocyclic group; a saturated or unsaturated heterocyclic or heteroaliphatic group with one or more atoms selected from O, N and S, wherein said carbocyclics, heterocyclics and heteroaliphatics are optionally substituted by one or more linear or branched, saturated or unsaturated C 1 to C 9 alkyls; an ether group - R X -O-R Y or [(CH 2) x O] y (CH 2) z (x = 2-3, y = 3-8, z = 2-5), wherein R X and R Y are independently linear or branched, saturated or unsaturated C 1 to C 9 alkyl, or saturated or unsaturated carbocyclics, any of which alkyl and/or carbocyclic groups may be substituted or unsubstituted, with the proviso that at least one of the substituents R 2, R 3 and R 4 is a linear or macrocyclic ether group of the type -R X -O-R Y or [(CH 2) x O] y (CH 2) z (x = 2-3, y = 3-8, z = 2-5), respectively.
An insulating panel comprising a wood wool layer secured to a thermal insulating layer, in which - the wood wool layer comprises wood wool fibres held together by an inorganic binder and arranged in an irregular geometry to form an open-pore, three-dimensional structure having a porosity of greater than 30% by volume; and - the thermal insulating layer comprises a foam layer, characterised in that a fire resistant material in a quantity of between 0.8 kg/m 2 and 8 kg/m 2 is positioned between the wood wool layer and the thermal insulating layer, notably a fire resistant material comprising cement, Portland cement, white cement, grey cement, magnesia, caustic magnesia, silicates, gypsum or combinations thereof. - the wood wool layer comprises wood wool fibres held together by an inorganic binder and arranged in an irregular geometry to form an open-pore, three-dimensional structure having a porosity of greater than 30% by volume; and - the thermal insulating layer comprises a foam layer,
A variable frequency generator, comprising: a main stator comprising multi-phase armature windings; an exciter field winding; a rotating portion comprising exciter multi-phase windings, a main field winding, and an amplification component between the exciter multi-phase windings and the main field winding; the amplification component is configured to operate at a variable duty cycle to maintain a phase voltage of the armature windings near independent of a shaft speed of the variable frequency generator; and characterized by a rotating controller configured to interface with and manage operations of the amplification component; wherein the rotating controller including a frequency detector, a lookup table, and a gate drive, and wherein the frequency detector is configured to receive respective input signals from the exciter multi-phase windings, to detect a frequency or phase from the respective input signals, and to output respective frequency signals to the lookup table; and wherein the rotating controller is configured to provide an input for at least one gate of the amplification component, wherein the amplification component comprises a rotating boost converter that is in electrical communication with the rotating controller. a main stator comprising multi-phase armature windings; an exciter field winding; a rotating portion comprising exciter multi-phase windings, a main field winding, and an amplification component between the exciter multi-phase windings and the main field winding; the amplification component is configured to operate at a variable duty cycle to maintain a phase voltage of the armature windings near independent of a shaft speed of the variable frequency generator; and characterized by a rotating controller configured to interface with and manage operations of the amplification component; wherein the rotating controller including a frequency detector, a lookup table, and a gate drive, and wherein the frequency detector is configured to receive respective input signals from the exciter multi-phase windings, to detect a frequency or phase from the respective input signals, and to output respective frequency signals to the lookup table; and wherein the rotating controller is configured to provide an input for at least one gate of the amplification component, wherein the amplification component comprises a rotating boost converter that is in electrical communication with the rotating controller.
A support arrangement to enable the installation of a loft ladder subframe assembly in an aperture of a ceiling for taking the weight of a loft ladder subframe assembly as it is initially placed into a hatch frame defining an aperture in the ceiling, the support arrangement comprising hatch frame protrusion means capable of protruding a short distance into the aperture from the frame members of the hatch frame, the support arrangement further comprising loft ladder subframe protrusion means capable of protruding a short distance from the frame members of the loft ladder subframe, the hatch frame protrusion means and the loft ladder subframe protrusion means being capable of engaging so that the hatch frame protrusion means supports the weight of the loft ladder subframe assembly, characterized in that the loft ladder subframe protrusion means and/or the hatch frame protrusion means is adjustable between two positions; a protruding position for initially supporting the loft ladder subframe assembly on the hatch frame and a retracted installing position for allowing the loft ladder subframe assembly to slide into the hatch frame during installation.
Process for the preparation of drospirenone, comprising the transformation reaction of 17α-(3-hydroxypropyl)-6β,7β;15β,16β-dimethylene-5β-androstane-3β,5,17β-triol of formula into drospirenone: with gaseous oxygen at a temperature of between 30 and 50 °C, in the presence of a catalytic system consisting of 2,2,6,6-tetramethylpiperidine-1-oxyl radical or a derivative thereof, a ferric salt and sodium chloride, wherein each of the components of the catalytic system is present in an amount of between 15 and 25% in moles with respect to the substrate to be transformed, in a solvent consisting of acetic acid or a mixture of an acid and at least one organic solvent.
Method for producing a value document and/or security document having an antenna structure, comprising the following method steps: - providing a carrier body (1, 1 a, 1 b), - applying the antenna structure to the carrier body (1, 1 a, 1 b), - creating a transillumination image of at least one section of the antenna structure, - defining at least one image region (B4',... B6"), in which the at least one section of the antenna structure or a part of the section is reproduced, - determining at least one parameter of an intensity value distribution in the at least one image region (B4',... B6"), - evaluating a parameter-dependent quality criterion. - providing a carrier body (1, 1 a, 1 b), - applying the antenna structure to the carrier body (1, 1 a, 1 b), - creating a transillumination image of at least one section of the antenna structure, - defining at least one image region (B4',... B6"), in which the at least one section of the antenna structure or a part of the section is reproduced, - determining at least one parameter of an intensity value distribution in the at least one image region (B4',... B6"), - evaluating a parameter-dependent quality criterion.
A method of preparing a heteromultimeric protein comprising a first hinge-containing polypeptide having a first heterodimerization domain and a second hinge-containing polypeptide having a second heterodimerization domain, wherein the second heterodimerization domain interacts with the first heterodimerization domain, and wherein the first and second hinge-containing polypeptides are linked by at least one interchain disulfide bond, and wherein each of the first and second hinge-containing polypeptides is an antibody heavy chain and is paired with an antibody light chain to form a first pair and a second pair, and wherein the light chains of the first pair and the second pair comprise different variable domain sequences, the method comprising the steps of: (a) culturing a first host cell comprising a first nucleic acid encoding the first hinge-containing polypeptide under conditions where the hinge-containing polypeptide is expressed and is paired with an antibody light chain to form the first pair; (b) culturing a second host cell comprising a nucleic acid encoding the second hinge-containing polypeptide under conditions where the hinge-containing polypeptide is expressed and is paired with an antibody light chain to form the second pair; (c) disrupting the cell membranes of the first and second host cells to release the first and second hinge-containing polypeptides from the host cells to form a heteromultimeric protein, wherein the first and second host cells have been combined together in a single suspension; and (d) recovering the heteromultimeric protein, wherein said method does not require the addition of a reductant. (a) culturing a first host cell comprising a first nucleic acid encoding the first hinge-containing polypeptide under conditions where the hinge-containing polypeptide is expressed and is paired with an antibody light chain to form the first pair; (b) culturing a second host cell comprising a nucleic acid encoding the second hinge-containing polypeptide under conditions where the hinge-containing polypeptide is expressed and is paired with an antibody light chain to form the second pair; (c) disrupting the cell membranes of the first and second host cells to release the first and second hinge-containing polypeptides from the host cells to form a heteromultimeric protein, wherein the first and second host cells have been combined together in a single suspension; and (d) recovering the heteromultimeric protein,