mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for simultaneous imaging and execution of contact-free directed hydrodynamic flow in a specimen through changing heat patterns, the apparatus comprising: - a microscope having a light source which provides visible light and an objective for fluorescence imaging of at least a part of the specimen, - an infrared laser source being adapted to dynamically heat at least one specified location of the specimen, - means for manipulating the specified location of the specimen which is to be heated, and - a sample chamber for the specimen that is accessible for visible imaging radiation and a beam of infrared light, characterized in that a means for coupling in light from the infrared laser source into an optical path of the microscope is arranged downstream of the means for manipulating the specified location of the specimen, that the objective of the microscope is adapted further to guide, in particular focus, a light beam of the infrared laser source into and/or onto the specimen to heat the at least one specified location of the specimen to allow simultaneous imaging and manipulation of the sample via the objective and that the objective is an immersion objective and heavy water is provided between the objective and the sample. - a microscope having a light source which provides visible light and an objective for fluorescence imaging of at least a part of the specimen, - an infrared laser source being adapted to dynamically heat at least one specified location of the specimen, - means for manipulating the specified location of the specimen which is to be heated, and - a sample chamber for the specimen that is accessible for visible imaging radiation and a beam of infrared light, that a means for coupling in light from the infrared laser source into an optical path of the microscope is arranged downstream of the means for manipulating the specified location of the specimen, that the objective of the microscope is adapted further to guide, in particular focus, a light beam of the infrared laser source into and/or onto the specimen to heat the at least one specified location of the specimen to allow simultaneous imaging and manipulation of the sample via the objective and that the objective is an immersion objective and heavy water is provided between the objective and the sample.
Fluidized bed heat exchanger with a chamber, comprising at least one solid particles inlet port, at least one solid particles outlet port, arranged at a distance to the at least one inlet port, means for introducing a fluidizing gas from a bottom area of said chamber into said chamber, wall-like heat transfer means in its lower part, extending in a main flow direction of the solid particles on their way from the inlet port to the outlet port, substantially parallel to each other, with a space between adjacent heat transfer means, at least one baffle (50,52) in its upper part, extending downwardly from a chamber ceiling, with its lower end at a distance to the heat transfer means, substantially perpendicular to the heat transfer means, characterized in that, said at least one baffle extends substantially perpendicular to a straight line between the inlet port and the outlet port of the chamber and substantially vertical, and comprising extensions, protruding into the space between adjacent heat transfer means, and couplings to mechanically connect the said heat transfer means to said extensions.
A formed meat analogue product comprising two intermixed parts having each a color, wherein - a first part comprises a textured plant protein, a binder, and optionally a colorant; - a second part comprises a vegetable fat and at least 10% physically processed starch; wherein the color of the second part is different from the color of the first part; and wherein the second part is intermixed with the first part in such a way as to provide a visual aspect of the meat analogue product as a marbled meat analogue product. - a first part comprises a textured plant protein, a binder, and optionally a colorant; - a second part comprises a vegetable fat and at least 10% physically processed starch; wherein the color of the second part is different from the color of the first part; and wherein the second part is intermixed with the first part in such a way as to provide a visual aspect of the meat analogue product as a marbled meat analogue product.
Thermoformable and grainable composite film, in particular for cladding of vehicle interiors, with a decorative film, a lacquer layer configured thereon and optionally a carrier and further layers and intervening layers, characterized in that the decorative layer comprises a thermoplastic styrene block copolymer and a thermoplastic homopolymer of propylene, the quantity of the homopolymer of propylene, based on 10 to 70 parts by weight of the thermoplastic styrene block copolymer, in the thermoplastic polymer mixture is 5 to 50 parts by weight, and the Shore A hardness of the thermoplastic polymer mixture is 50 to 90 (in accordance with DIN ISO 7619-1), and where the thermoplastic polymer mixture additionally comprises a thermoplastic homopolymer of ethylene and the quantity thereof, based on the said parts by weight of the thermoplastic styrene block copolymer and of the thermoplastic homopolymer of propylene, is 5 to 80 parts by weight, in particular 20 to 75 parts by weight.
Floating hydrocarbon processing and storage structure with a first and a second assembly (2,2') each comprising a hull (3,3') having spaced-apart side walls (5,6;5',6'), one or more storage tanks (7,7') and a deck structure (4,4'), a connection structure interconnecting the first and second hulls (3,3'), processing equipment (10,10') being situated on the hull deck structures (4,4'), at least one hydrocarbon riser connectable to a subsea hydrocarbon well and to the processing equipment (10,10') and/or to the storage tanks (7,7'), and with a mooring system (8,13, 35,35') for connecting the hydrocarbon processing and storage structure to the sea bed, characterised in that - each hull (3,3') comprises a respective hull deck structure (4,4') bridging the side walls (5,6;5',6'), - the interconnection structure comprises a central deck extending at or near the height of the hull deck structures (4,4') along at least along 70 % of the length of the hulls (3,3'), the central deck supporting one of the following features or a combination thereof: - a number of risers (54,54') vertically extending from the central deck between the hulls (3,3') to the sea bed, along a length of at least one third of the length of the central deck, preferably along half of its length, - a number of fluid ducts horizontally supported on the central deck along at least one third of the length of the central deck, preferably along half of its length, and - at least one drilling or work-over rig or crane (51,52). - each hull (3,3') comprises a respective hull deck structure (4,4') bridging the side walls (5,6;5',6'), - the interconnection structure comprises a central deck extending at or near the height of the hull deck structures (4,4') along at least along 70 % of the length of the hulls (3,3'), the central deck supporting one of the following features or a combination thereof: - a number of risers (54,54') vertically extending from the central deck between the hulls (3,3') to the sea bed, along a length of at least one third of the length of the central deck, preferably along half of its length, - a number of fluid ducts horizontally supported on the central deck along at least one third of the length of the central deck, preferably along half of its length, and - at least one drilling or work-over rig or crane (51,52).
An elevator load bearing member, comprising: a unidirectional weave of a plurality of load bearing fibers including at least a first material and a second material, and a coating over the plurality of load bearing fibers; wherein a melting point of the first material is higher than a melting point of the second material, or, where the first material is a material that cannot be melted and has a decomposition temperature, the decomposition temperature of the first material is higher than the melting point of the second material; wherein the plurality of load bearing fibers are bonded together by at least some of the second material that is at least partially melted; and wherein, in said unidirectional weave, the load bearing fibers are arranged as warp fibers extending in a length direction of the load bearing member and some weft fibers transverse to the single direction of the warp fibers, but such weft fibers are far fewer in number than the warp fibers and are not considered significant to the load bearing performance of the unidirectional weave; characterized in that the second material comprises at least one of ultrahigh molecular weight polyethylene and ultrahigh molecular weight polypropylene. a unidirectional weave of a plurality of load bearing fibers including at least a first material and a second material, and a coating over the plurality of load bearing fibers; wherein a melting point of the first material is higher than a melting point of the second material, or, where the first material is a material that cannot be melted and has a decomposition temperature, the decomposition temperature of the first material is higher than the melting point of the second material; wherein the plurality of load bearing fibers are bonded together by at least some of the second material that is at least partially melted; and wherein, in said unidirectional weave, the load bearing fibers are arranged as warp fibers extending in a length direction of the load bearing member and some weft fibers transverse to the single direction of the warp fibers, but such weft fibers are far fewer in number than the warp fibers and are not considered significant to the load bearing performance of the unidirectional weave; characterized in that the second material comprises at least one of ultrahigh molecular weight polyethylene and ultrahigh molecular weight polypropylene.
Truss-type rail for a fairground ride, with - two rail tubes (12, 14) which can be driven on directly with a car arrangement, - a chord tube which cannot be driven on, and - vertical framework profiles which connect the rail tubes (12, 14) and the chord tube to each other in a stiffening manner and which comprise vertical diagonal profiles which run diagonally between the chord tube and the respective rail tube (12, 14), alternately rising and falling, characterised in that, in at least one connection area of the vertical diagonal profiles to the chord tube, no further vertical framework profile is connected thereto. - two rail tubes (12, 14) which can be driven on directly with a car arrangement, - a chord tube which cannot be driven on, and - vertical framework profiles which connect the rail tubes (12, 14) and the chord tube to each other in a stiffening manner and which comprise vertical diagonal profiles which run diagonally between the chord tube and the respective rail tube (12, 14), alternately rising and falling, characterised in that, in at least one connection area of the vertical diagonal profiles to the chord tube, no further vertical framework profile is connected thereto.
A method of roll forming the face pattern onto a pattern forming die comprising: providing a forming die blank having a pattern receiving face (52, 53); providing an initial pattern forming tool having a generally cylindrical pattern defining surface; relatively reciprocating and rotating said pattern defining surface of said initial pattern forming tool and said pattern receiving face (52, 53) of said forming die blank; engaging said generally cylindrical pattern defining surface of said initial pattern forming tool with said pattern receiving face (52, 53) of said pattern forming die; and urging said generally cylindrical pattern defining surface of said initial pattern forming tool into said pattern receiving face (52, 53) of said forming die blank to impress the pattern of said generally cylindrical pattern defining surface of said initial pattern forming tool into said pattern receiving face (52, 53) of said forming die blank, characterized in that said pattern receiving face (52, 53) of said forming die blank is a non-planar pattern receiving face (52, 53), the method further comprising: maintaining a constant force between said engaged generally cylindrical pattern defining surface of said initial pattern forming tool and said non-planar pattern receiving face (52, 53) of said pattern forming die during said relative reciprocal and rotational movement therebetween. providing a forming die blank having a pattern receiving face (52, 53); providing an initial pattern forming tool having a generally cylindrical pattern defining surface; relatively reciprocating and rotating said pattern defining surface of said initial pattern forming tool and said pattern receiving face (52, 53) of said forming die blank; engaging said generally cylindrical pattern defining surface of said initial pattern forming tool with said pattern receiving face (52, 53) of said pattern forming die; and urging said generally cylindrical pattern defining surface of said initial pattern forming tool into said pattern receiving face (52, 53) of said forming die blank to impress the pattern of said generally cylindrical pattern defining surface of said initial pattern forming tool into said pattern receiving face (52, 53) of said forming die blank, characterized in that said pattern receiving face (52, 53) of said forming die blank is a non-planar pattern receiving face (52, 53), the method further comprising: maintaining a constant force between said engaged generally cylindrical pattern defining surface of said initial pattern forming tool and said non-planar pattern receiving face (52, 53) of said pattern forming die during said relative reciprocal and rotational movement therebetween. maintaining a constant force between said engaged generally cylindrical pattern defining surface of said initial pattern forming tool and said non-planar pattern receiving face (52, 53) of said pattern forming die during said relative reciprocal and rotational movement therebetween.
Apparatus for treating hair with steam including a housing comprising a liquid container, liquid supply means of a steam generator, one or a plurality of dispensing orifices of the steam produced towards a strand of hair and a hair styling device including at least one treatment surface including heating means and coming into contact with a strand of hair, the styling device including an upper arm including the treatment surface and a lower arm including a treatment surface, each treatment surface (31, 32) is formed from a metal plate coming into thermal contact with an electric heating element, the two arms (33, 34) being mounted hinged around a hinge, the steam generator including a heating element which is thermally independent from said treatment surface, i.e. the steam generator is provided with a heating element specifically for the production of steam, separate from the styling device which includes its own heating element, characterised in that the lower arm includes a deflector arranged facing the dispensing orifice(s), the deflector including a recessed wall, but parallel to the treatment surface of the lower arm.
A magnesium oxide powder, comprising (i) an Fe element the valence of which is a trivalence, wherein a content of the Fe element is from 0.03 to 0.20% by weight, and at least a part of the Fe element has a cluster structure, and (ii) a B element in an amount of from 0.05 to 0.50% by weight; wherein he magnesium oxide powder is having a BET specific surface area of 10 to 40 m 2 /g.
A QR code positioning method, comprising: determining, from a QR code image that comprises first-type pixels and second-type pixels, centers of candidate position detection patterns in the QR code image based on a predetermined row pixel detection rule and a predetermined column pixel detection rule, wherein the row pixel detection rule comprises that a consecutive arrangement ratio of a first-type pixel, a second-type pixel, and a first-type pixel satisfies a first predetermined ratio, and the column pixel detection rule comprises that a consecutive arrangement ratio of a first-type pixel, a second-type pixel, and a first-type pixel satisfies a second predetermined ratio; identifying the corresponding candidate position detection patterns based on the determined centers of the candidate position detection patterns; and determining, from the identified candidate position detection patterns, patterns that satisfy a QR code image positioning rule, and using the determined patterns as position detection patterns of the QR code image. determining, from a QR code image that comprises first-type pixels and second-type pixels, centers of candidate position detection patterns in the QR code image based on a predetermined row pixel detection rule and a predetermined column pixel detection rule, wherein the row pixel detection rule comprises that a consecutive arrangement ratio of a first-type pixel, a second-type pixel, and a first-type pixel satisfies a first predetermined ratio, and the column pixel detection rule comprises that a consecutive arrangement ratio of a first-type pixel, a second-type pixel, and a first-type pixel satisfies a second predetermined ratio; identifying the corresponding candidate position detection patterns based on the determined centers of the candidate position detection patterns; and
A computer implemented method for virtually designing the attachment of a manufactured dental model of a patient's set of teeth in a physical dental articulator by means of one or more kinds of spacer elements, where the method comprises: - obtaining a virtual 3D dental model of the patient's set of teeth, where the virtual 3D dental model is provided by means of 3D scanning; - providing a virtual dental articulator type corresponding to a physical dental articulator, where the dental articulator comprises an upper arm and a lower arm and has a known articulator height, which is the distance between the upper arm and the lower arm in the static position of the dental articulator; - providing a minimum height of the dental model, where the height of the dental model is the height of an upper part and the height of a lower part of the dental model; - providing one or more kinds of virtual spacer elements with predetermined heights, where each kind of virtual spacer element corresponds to a physical spacer element; - determining a manufacture height of the dental model and determining the number of each of the kinds of spacer elements to be used for the attachment of the manufactured dental model in the physical articulator, such that the manufacture height of the dental model and a total effective spacer element height, which is the added height of the determined spacer elements, equal the articulator height, and where the manufacture height of the dental model is not less than the minimum height of the dental model, wherein the total effective spacer element height is configured for retaining or securing the dental model in the dental articulator and is calculated as a difference between the articulator height and the manufacture height of the dental model. - obtaining a virtual 3D dental model of the patient's set of teeth, where the virtual 3D dental model is provided by means of 3D scanning; - providing a virtual dental articulator type corresponding to a physical dental articulator, where the dental articulator comprises an upper arm and a lower arm and has a known articulator height, which is the distance between the upper arm and the lower arm in the static position of the dental articulator; - providing a minimum height of the dental model, where the height of the dental model is the height of an upper part and the height of a lower part of the dental model; - providing one or more kinds of virtual spacer elements with predetermined heights, where each kind of virtual spacer element corresponds to a physical spacer element; - determining a manufacture height of the dental model and determining the number of each of the kinds of spacer elements to be used for the attachment of the manufactured dental model in the physical articulator,
A method of forming a nonwoven article comprising: a) receiving fibrous material comprising thermoplastic fibers, wherein the thermoplastic fibers comprise polypropylene and polyethylene terephthalate, wherein at least a portion of the fibrous material is waste material; b) processing the fibrous material to produce short fibers, wherein the processing step comprises granulation utilizing at least one granulator with a screen; c) blending the short fibers to create a short fiber mixture, wherein the short fiber mixture contains 40% polypropylene and 60% polyethylene terephthalate, and wherein the fibers of the short fiber mixture have an average length of about 6 mm or less; d) distributing the short fiber mixture approximately evenly across an area to form a short fiber web, wherein the distributing step comprises utilizing a recyclate spreader; e) heating the short fiber web to fuse the short fibers to form a nonwoven material; and f) forming a sheet of the nonwoven material; g) shaping the sheet into a molded article surrounded by waste; and h) separating the molded article from the waste. a) receiving fibrous material comprising thermoplastic fibers, wherein the thermoplastic fibers comprise polypropylene and polyethylene terephthalate, wherein at least a portion of the fibrous material is waste material; b) processing the fibrous material to produce short fibers, wherein the processing step comprises granulation utilizing at least one granulator with a screen; c) blending the short fibers to create a short fiber mixture, wherein the short fiber mixture contains 40% polypropylene and 60% polyethylene terephthalate, and wherein the fibers of the short fiber mixture have an average length of about 6 mm or less; d) distributing the short fiber mixture approximately evenly across an area to form a short fiber web, wherein the distributing step comprises utilizing a recyclate spreader; e) heating the short fiber web to fuse the short fibers to form a nonwoven material; and f) forming a sheet of the nonwoven material; g) shaping the sheet into a molded article surrounded by waste; and h) separating the molded article from the waste.
A bone implant configured for osteointegration, characterised in that the bone implant comprises a jade material selected from a group consisting of a jadeite jade, nephrite jade, xonothlite jade, vezuvianite jade, pectolite jade, bowenite jade and hydrogrossular jade, wherein the jade material is a silicate mineral aggregate or rock with tangled-fibrous or fine- crystalline structure.