mhurhangee/patent-ind-claim-en huggingface dataset:
A hot melt adhesive composition comprising: (a) 30% to 72% by weight of a first polymer comprising a unimodal copolymer of propylene and ethylene and having a weight average molecular weight of between 5,000 and 60,000 g/mol (daltons); (b) 0.1% to 8% of a second polymer comprising a copolymer of propylene and ethylene and having a weight average molecular weight of at least 100,000 g/mol (daltons); (c) 25% to 65% by weight of a tackifying resin having a Ring & Ball softening point of at most 115°C; and (d) 2% to 25% by weight of a plasticizer, wherein the weight ratio of the first polymer to the second polymer is between 75: 1 and 10:1 and the viscosity of the composition is equal to or less than 35,000 mPas (cP) at 121°C. (a) 30% to 72% by weight of a first polymer comprising a unimodal copolymer of propylene and ethylene and having a weight average molecular weight of between 5,000 and 60,000 g/mol (daltons); (b) 0.1% to 8% of a second polymer comprising a copolymer of propylene and ethylene and having a weight average molecular weight of at least 100,000 g/mol (daltons); (c) 25% to 65% by weight of a tackifying resin having a Ring & Ball softening point of at most 115°C; and (d) 2% to 25% by weight of a plasticizer, wherein the weight ratio of the first polymer to the second polymer is between 75: 1 and 10:1 and the viscosity of the composition is equal to or less than 35,000 mPas (cP) at 121°C.
A method for winterizing microbial oil comprising the steps of: (a) providing a microbial oil; (b) heating the microbial oil to a first temperature and maintaining the microbial oil at the first temperature for a first period of time; (c) reducing the first temperature of the microbial oil after the first period of time to a second temperature over a second period of time, wherein reducing the first temperature produces a first solid fraction and first liquid fraction of the microbial oil; (d) removing the first solid fraction from the microbial oil; (e) reducing the second temperature of the first liquid fraction of the microbial oil over a third period of time to a third temperature, wherein reducing the second temperature of the microbial oil produces a second solid fraction and second liquid fraction of the microbial oil, and wherein the microbial oil is not heated between the steps of reducing the first temperature and reducing the second temperature; (f) removing the second solid fraction from the microbial oil; and (g) recovering the second liquid fraction of the microbial oil, wherein the method is carried out in the absence of solvents. (a) providing a microbial oil; (b) heating the microbial oil to a first temperature and maintaining the microbial oil at the first temperature for a first period of time; (c) reducing the first temperature of the microbial oil after the first period of time to a second temperature over a second period of time, wherein reducing the first temperature produces a first solid fraction and first liquid fraction of the microbial oil; (d) removing the first solid fraction from the microbial oil; (e) reducing the second temperature of the first liquid fraction of the microbial oil over a third period of time to a third temperature, wherein reducing the second temperature of the microbial oil produces a second solid fraction and second liquid fraction of the microbial oil, and wherein the microbial oil is not heated between the steps of reducing the first temperature and reducing the second temperature; (f) removing the second solid fraction from the microbial oil; and (g) recovering the second liquid fraction of the microbial oil,
Chassis component for a wheel suspension, comprising a strut arrangement which has at least one strut and which is configured as a profile part having an open cross-sectional shape, wherein the at least one strut comprises a profile base and two wall portions emanating therefrom, wherein a joint point is provided on at least one end of the strut for receiving two movably interconnected joint parts , namely a first joint part having a spherical joint body and a second joint part rotatably and/or pivotably receiving the joint body , wherein the wall portions have, in the region of the at least one joint point , a first joint receiving opening and a second joint receiving opening which are arranged opposite one another, wherein a cylindrical sleeve is pressed in between the first joint receiving opening and the second joint receiving opening and spaces apart the wall portions situated opposite one another, characterized in that at least one sensor element and the joint body are inserted into the pressed-in sleeve , wherein the sleeve , the sensor element and the joint body inserted therein are integrated into a joint housing which is produced by overmoulding and which forms the second joint part .
A signal transmission method in a wireless communication system, characterized by comprising: selecting , for user data of a k-th layer of the wireless communication system, a phase compensation value which makes an output reference signal generated by processing an original reference signal in the user data of the k-th layer through interference cancellation on a transmitter side have a signal power within a pre-defined power threshold, applying phase rotation to the original reference signal in the user data of the k-th layer using the phase compensation value to obtain a corrected reference signal, applying interference cancellation to the corrected reference signal to obtain the output reference signal, wherein k is within 1 to M, M is smaller than or equal to K; K is the total number of layers of user data in the wireless communication system; applying phase rotation to an original data signal in the user data of the k-th layer using the phase compensation value to obtain a corrected data signal; applying interference cancellation to the corrected data signal to obtain an output data signal; applying phase rotation to a pre-configured modulo vector using the phase compensation value; and applying a modulo operation to the output data signal processed using the modulo vector processed through the phase rotation to obtain a modulated data signal; and transmitting , via a wireless channel, the output reference signal and the modulated data signal. selecting , for user data of a k-th layer of the wireless communication system, a phase compensation value which makes an output reference signal generated by processing an original reference signal in the user data of the k-th layer through interference cancellation on a transmitter side have a signal power within a pre-defined power threshold, applying phase rotation to the original reference signal in the user data of the k-th layer using the phase compensation value to obtain a corrected reference signal, applying interference cancellation to the corrected reference signal to obtain the output reference signal, wherein k is within 1 to M, M is smaller than or equal to K; K is the total number of layers of user data in the wireless communication system; applying phase rotation to an original data signal in the user data of the k-th layer using the phase compensation value to obtain a corrected data signal; applying interference cancellation to the corrected data signal to obtain an output data signal; applying phase rotation to a pre-configured modulo vector using the phase compensation value; and applying a modulo operation to the output data signal processed using the modulo vector processed through the phase rotation to obtain a modulated data signal; and transmitting , via a wireless channel, the output reference signal and the modulated data signal.
Large refuse container comprising a refuse container body and a lid for closing the refuse container body , wherein the lid comprises a first lid part element and a second lid part element , wherein the lid is provided as a hinged lid, wherein the lid is provided in form of a flat lid, which spans a lid plane , wherein the first lid part element is pivotably arranged at the refuse container body , wherein the second lid part element is pivotably arranged at the first lid part element , such that it can get pivoted against the first lid part element , characterized in that the lid part elements are connected to one another via a flexible connecting device , that the second lid part element forms the front lid portion, that the flexible connecting device is arranged in such a way, that the second lid part element , with respect to the lid plane spanned by the lid , can get pivoted upwards out of the lid plane and downwards out of the lid plane , and that a stop device is provided to limit the pivoting movement of the second lid part elements .
A method for producing coal, asphalt, liquid hydrocarbon, organic acids, methane gas and/or hydrogen from a waste material comprising: a) providing a waste material; b) subjecting the waste material to irradiation with low frequency macro waves, with a wavelength of between 700 nm and 1 mm, whereby the temperature is between 205°C and 900°C and the pressure is between 1.0 bar and 19.0 bar, thereby producing coal; wherein in step b) said waste material is subjected to irradiation in a reaction vessel having a double metal wall, whereby an outer metal wall of said reaction vessel is heated by a primary source of radiation, whereby a heat source is located peripherally whereby the reaction vessel is not in direct contact with the heat source, whereby said outer metal wall and an inner metal wall of said double metal wall are not in direct heat transducing contact with one another, whereby said outer wall blocks the transfer of thermal energy by conduction and convection, whereby said outer metal wall is a secondary source of radiation for said material contained within said inner metal wall and whereby photon radiation from said outer wall passes through said inner wall of said reaction vessel, so that the material contained within said inner wall of said reaction vessel is irradiated by both said inner wall and said outer wall of said reaction vessel; wherein said waste material has a composition with a carbon content of 9-85%, a hydrogen content of 1-15% and an oxygen content of 0-65% based on dry weight of the material. a) providing a waste material; b) subjecting the waste material to irradiation with low frequency macro waves, with a wavelength of between 700 nm and 1 mm, whereby the temperature is between 205°C and 900°C and the pressure is between 1.0 bar and 19.0 bar, thereby producing coal;
A system for detecting reverse polarity of a photovoltaic system, comprising: a fuse holder comprising: a fuse holder body configured to receive a fuse ; and a reverse polarity detection component configured to: identify a polarity of a photovoltaic string of a photovoltaic arrangement ; and responsive to the polarity being indicative of a reverse polarity, provide a reverse polarity indication of the reverse polarity; the fuse holder body being further configured to provide galvanic isolation between a fuse holder body input and a fuse holder body output of the fuse holder body when the fuse holder body is in an open position and/or when the fuse is not installed within the fuse holder body . a fuse holder body configured to receive a fuse ; and a reverse polarity detection component configured to: identify a polarity of a photovoltaic string of a photovoltaic arrangement ; and responsive to the polarity being indicative of a reverse polarity, provide a reverse polarity indication of the reverse polarity; the fuse holder body being further configured to provide galvanic isolation between a fuse holder body input and a fuse holder body output of the fuse holder body when the fuse holder body is in an open position and/or when the fuse is not installed within the fuse holder body . identify a polarity of a photovoltaic string of a photovoltaic arrangement ; and responsive to the polarity being indicative of a reverse polarity, provide a reverse polarity indication of the reverse polarity; the fuse holder body being further configured to provide galvanic isolation between a fuse holder body input and a fuse holder body output of the fuse holder body when the fuse holder body is in an open position and/or when the fuse is not installed within the fuse holder body .
A trimmer head comprising: a rotation axis (A-A); a housing; a spool insertable in the housing , configured and arranged for winding a stock of cutting line (F) therearound, the spool comprising at least a first flange extending around a spool axis; at least two cutting line passage holes for the passage of the cutting line (F) from the inside to the outside of the housing ; characterized in that the spool comprises a plurality of cutting line anchoring elements , angularly spaced from one another to form a space for insertion of the cutting line (F) between consecutively arranged cutting line anchoring elements , said cutting line anchoring elements extending from the first flange and being spaced from the spool axis.
A method for the reduction of copper cyanide formation during cyanidation leaching for the recovery of precious metal from a copper sulphide ore or concentrate or other feed material also containing the precious metal, comprising: subjecting the feed material to pressure oxidation to produce a pressure oxidation slurry; subjecting the slurry to a liquid-solid separation step to obtain a pressure oxidation solution and a residue containing cyanide-soluble copper and the precious metal; reducing the cyanide-soluble copper by subjecting the residue to acid leaching with an acidic leach solution to produce a copper solution and an acid leach residue containing the precious metal; and subjecting the acid leach residue to cyanidation to recover the precious metal into solution. subjecting the feed material to pressure oxidation to produce a pressure oxidation slurry; subjecting the slurry to a liquid-solid separation step to obtain a pressure oxidation solution and a residue containing cyanide-soluble copper and the precious metal; reducing the cyanide-soluble copper by subjecting the residue to acid leaching with an acidic leach solution to produce a copper solution and an acid leach residue containing the precious metal; and subjecting the acid leach residue to cyanidation to recover the precious metal into solution.
A genetically modified yeast cell selected from Issatchenkia orientalis , Candida lambica, and Saccharomyces bulderi comprising an active 3-HP fermentation pathway, wherein the cell comprises an exogenous β-alanine aminotransferase (BAAT gene) or 4-aminobutyrate aminotransferase (gabT gene), exogenous meaning that the gene is not present at the location of the gene in the genome of a native form of the yeast cell, wherein the BAAT gene or gabT gene encodes a polypeptide with at least 80% sequence identity to the amino acid sequence of SEQ ID NO: 20 or SEQ ID NO: 21.
A method of making oxidation-resistant highly cross-linked blend of polymeric material and additive comprising: a) blending the polymeric material with an additive; b) consolidating the blend; c) irradiating the blend at a temperature below the melt with ionizing radiation, thereby forming a cross-linked blend of polymeric material and additive; d) mechanically deforming the cross-linked blend at a temperature below its melting point; and e) annealing the mechanically deformed crosslinked blend at a temperature below the melting point, thereby forming the oxidation-resistant highly cross-linked blend of polymeric material and additive. a) blending the polymeric material with an additive; b) consolidating the blend; c) irradiating the blend at a temperature below the melt with ionizing radiation, thereby forming a cross-linked blend of polymeric material and additive; d) mechanically deforming the cross-linked blend at a temperature below its melting point; and e) annealing the mechanically deformed crosslinked blend at a temperature below the melting point, thereby forming the oxidation-resistant highly cross-linked blend of polymeric material and additive.
An alloy comprising: from 0.15 to 0.35 wt% carbon, from 2.5 to 5.0 wt% aluminium, from 40 to 45 wt% nickel, from 25 to 35 wt% chromium, from 0.50 to 1.50 wt% niobium and / or vanadium, from 0.01 wt% to 0.25 wt% yttrium, from 0.01 wt% to 0.25 wt% tungsten and / or tantalum, from 0.01 wt% to 0.25 wt% in total of one or more of titanium and / or zirconium and / or hafnium, up to 0.9 wt% manganese, up to 0.9 wt% silicon, and up to 0.10 wt% nitrogen, with the balance of the composition being iron and incidental impurities, optionally wherein up to 75 wt% by weight of the nickel is replaced with cobalt. from 0.15 to 0.35 wt% carbon, from 2.5 to 5.0 wt% aluminium, from 40 to 45 wt% nickel, from 25 to 35 wt% chromium, from 0.50 to 1.50 wt% niobium and / or vanadium, from 0.01 wt% to 0.25 wt% yttrium, from 0.01 wt% to 0.25 wt% tungsten and / or tantalum, from 0.01 wt% to 0.25 wt% in total of one or more of titanium and / or zirconium and / or hafnium, up to 0.9 wt% manganese, up to 0.9 wt% silicon, and up to 0.10 wt% nitrogen, with the balance of the composition being iron and incidental impurities, optionally wherein up to 75 wt% by weight of the nickel is replaced with cobalt.
A side-ways ejection arrangement comprising a payload stored and launched by the arrangement , a launch compartment , a push-out chamber and an air intake , wherein the launch compartment of the arrangement comprises an ejection device configured to eject the payload from the launch compartment via the push-out chamber to an airflow (AF), which during use of the arrangement flows over an aerodynamic surface of the arrangement , the air intake being formed in the aerodynamic surface and being coupled to the launch compartment via an internal air transfer arrangement comprising an openable closure member configured to close and open the internal air transfer arrangement , wherein - the air intake is configured to transfer flow of air to the launch compartment via the internal air transfer arrangement ; such that - the flow of air flowing into the launch compartment will affect the payload being ejected with an additional push-out force, wherein an eject force of the ejection device is added with said additional push-out force. - the air intake is configured to transfer flow of air to the launch compartment via the internal air transfer arrangement ; such that - the flow of air flowing into the launch compartment will affect the payload being ejected with an additional push-out force, wherein an eject force of the ejection device is added with said additional push-out force.
A method comprising: Receiving , at a processor, data representing at least part of an object to be manufactured in a layer-by-layer manufacturing process; and Generating , from the data and using the processor, a serialised octree representation of at least part of the object comprising a plurality of nodes, characterised in that generating the serialised octree representation comprises ordering the nodes such that (i) a node representing a volume which includes a layer of the object to be generated earlier in an intended order of object generation precedes a node representing a volume which consists of layer(s) of the object to be generated subsequently; (ii) nodes representing a volume which includes a given layer of the object are ordered based on a level of the nodes within the octree representation, wherein parent nodes appear before descendent nodes; and (iii) nodes representing a volume which includes a given layer of the object and being of the same level within the octree representation are ordered according to a location encoding pattern. Receiving , at a processor, data representing at least part of an object to be manufactured in a layer-by-layer manufacturing process; and Generating , from the data and using the processor, a serialised octree representation of at least part of the object comprising a plurality of nodes, characterised in that generating the serialised octree representation comprises ordering the nodes such that (i) a node representing a volume which includes a layer of the object to be generated earlier in an intended order of object generation precedes a node representing a volume which consists of layer(s) of the object to be generated subsequently; (ii) nodes representing a volume which includes a given layer of the object are ordered based on a level of the nodes within the octree representation, wherein parent nodes appear before descendent nodes; and (iii) nodes representing a volume which includes a given layer of the object and being of the same level within the octree representation are ordered according to a location encoding pattern. (i) a node representing a volume which includes a layer of the object to be generated earlier in an intended order of object generation precedes a node representing a volume which consists of layer(s) of the object to be generated subsequently; (ii) nodes representing a volume which includes a given layer of the object are ordered based on a level of the nodes within the octree representation, wherein parent nodes appear before descendent nodes; and (iii) nodes representing a volume which includes a given layer of the object and being of the same level within the octree representation are ordered according to a location encoding pattern.
A transmission element with elastic response for the transmission of a torsional stress between an actuating element and an actuated element, the transmission element comprising: a solid block body ; attachments for said actuating element and said actuated element formed in, or associated with, said body in opposed positions aligned along a center axis (X) of the torsion stress; and a distribution of through recesses formed in said body , said recesses developing parallel and superimposed mainly according to planes (A) with a parallel relationship with respect to said center axis (X), and spacing a plurality of plate-like segments of the solid block body, all said segments being parallel with each other and with said center axis (X), wherein said recesses are closed alternatively on either sides of the body that are mutually opposed along the center axis (X) and correspond to respective attachments to the actuating element and the actuated element, so as to define a serpentine portion comprising said plate-like segments spaced by the thickness of the recesses and connected by junctions that define the closure of the recesses on the opposed sides , the serpentine portion having ends connected respectively with said attachments via connection bridges at mutually opposite sides of said torsion axis.
Container comprising a substantially rectangular bottom , two opposed, preferably short, first side walls and two opposed, preferably long, second side walls , wherein the container internal cross-section defined by the first and second side walls increases from the bottom to a container opening located above the bottom in order to be able to nest another, in particular identically constructed container , in the container ; and the container further comprises movably mounted stacking devices , in particular stacking brackets, which can be brought into a stacking position in which they shorten the distance between the first side walls and provide a support for another, in particular identically constructed, container when it is stacked on the container , characterized in that the second side walls each have two indentations facing outwards which each extend in a trough shape from the bottom to the upper edge of the corresponding second side wall in order to increase the span of the container , in particular of the bottom , in the region of the indentations for stacking the container , wherein, in particular trough-shaped, first recesses extending parallel to the second side walls are provided on the lower sides of the indentations for receiving stacking brackets of a container , in particular a smaller container, stacked underneath in a form-fitting manner.