mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for modifying media content, the apparatus comprising: means for obtaining one or more two-dimensional, 2D, images representing a 2D scene from within the media content; means for generating, based on the one or more of the 2D images, a three-dimensional, 3D, representation of media elements present in the 2D scene, two of the three dimensions identifying a location within a respective image of the media element and a third dimension identifying a distance of the media element from a captured perspective of the scene; means for creating a 3D volume representation of the scene by aggregating the 3D representations; means for creating a map of 3D void space in the 2D scene by subtracting the 3D volume representation from a total 3D volume of the 2D scene; means for segmenting the 3D void space into a plurality of 3D void segments; means for scoring each of the plurality of 3D void segments based on one or more of tracking characteristics of the 3D void segment, lighting characteristics of the respective 3D void segment, a duration of time the respective 3D void segment is in focus or otherwise included in the 2D scene, a size of the respective 3D void segment, or a distance of the respective 3D void segment from a center of the 2D scene; means for selecting one of the 3D void segments based on the respective score of each 3D void segment; means for inserting a 3D media element into the one selected 3D void segment; and means for modifying the one or more 2D images to include the inserted 3D media element within the selected 3D void segment. means for obtaining one or more two-dimensional, 2D, images representing a 2D scene from within the media content; means for generating, based on the one or more of the 2D images, a three-dimensional, 3D, representation of media elements present in the 2D scene, two of the three dimensions identifying a location within a respective image of the media element and a third dimension identifying a distance of the media element from a captured perspective of the scene; means for creating a 3D volume representation of the scene by aggregating the 3D representations; means for creating a map of 3D void space in the 2D scene by subtracting the 3D volume representation from a total 3D volume of the 2D scene; means for segmenting the 3D void space into a plurality of 3D void segments; means for scoring each of the plurality of 3D void segments based on one or more of tracking characteristics of the 3D void segment, lighting characteristics of the respective 3D void segment, a duration of time the respective 3D void segment is in focus or otherwise included in the 2D scene, a size of the respective 3D void segment, or a distance of the respective 3D void segment from a center of the 2D scene; means for selecting one of the 3D void segments based on the respective score of each 3D void segment; means for inserting a 3D media element into the one selected 3D void segment; and means for modifying the one or more 2D images to include the inserted 3D media element within the selected 3D void segment.
Single-layer or multi-layer, biaxially oriented polyester film containing less than 30 ppm antimony and less than 30 ppm germanium, which: - has an elongation at break of more than 50 % in each film direction (MD and TD), measured before a 90-minute temperature treatment at 180 °C, as explained in the description under "Mechanical properties", - is 6 to 100 μm thick, - consists in total to an extent of more than 80 % by weight of a thermoplastic polyester synthesized from ethylene glycol and terephthalic acid (= polyethylene terephthalate, PET) and which is characterized in that it - has at least one layer - in the case of a multi-layer film, an outer layer - which consists to an extent of less than 95 % by mole of PET, the remaining molar percentages being copolyesters which contain isophthalic acid as a copolyester component, and this layer contains at least 300 ppm (based on this layer not consisting of homopolyester) of a radical scavenger selected from the group of phenolic antioxidants containing the structural element where the overall film contains 50-10 000 ppm of a radical scavenger. - has an elongation at break of more than 50 % in each film direction (MD and TD), measured before a 90-minute temperature treatment at 180 °C, as explained in the description under "Mechanical properties", - is 6 to 100 μm thick, - consists in total to an extent of more than 80 % by weight of a thermoplastic polyester synthesized from ethylene glycol and terephthalic acid (= polyethylene terephthalate, PET) - has at least one layer - in the case of a multi-layer film, an outer layer - which consists to an extent of less than 95 % by mole of PET, the remaining molar percentages being copolyesters which contain isophthalic acid as a copolyester component, and this layer contains at least 300 ppm (based on this layer not consisting of homopolyester) of a radical scavenger selected from the group of phenolic antioxidants containing the structural element where the overall film contains 50-10 000 ppm of a radical scavenger.
A motor vehicle sensor combination module which comprises a sensor assembly with a support frame and a sensor unit which is statically connected to the support frame and can be connected to a control and evaluation device of the motor vehicle, the sensor unit having a sensor mount and environment sensor means which are statically fastened to the sensor mount and have at least one sensor means for recording vehicle environment data, wherein the motor vehicle sensor combination module can be mounted on/in an exterior region of the motor vehicle, preferably on/in a region of the front of the motor vehicle, characterized in that the motor vehicle sensor combination module has adjustment means for static and/or dynamic adjustment of the sensor assembly , and the environment sensor means comprise at least two sensor means for detecting vehicle environment data, the at least two sensor means being statically adjusted with respect to one another on the sensor mount .
A method of producing a sealing seam connecting two material webs of a multilayer composite with a barrier layer, wherein the two material webs are positioned between sealing surfaces of a first and a second tool in such a way that the portions of the material web, that are to be connected together, lie upon each other and between the sealing surfaces, the two tools are moved towards each other so that the two sealing surfaces for producing the sealing seam are pressed towards each other, wherein the first tool is an ultrasonic sonotrode which is excited with an ultrasonic vibration while the two sealing surfaces are pressed towards each other and the sealing seam is produced with two mutually juxtaposed seams, a main seam and a secondary seam, wherein the sealing surfaces are so selected that in a main processing portion the maximum spacing between the two sealing surfaces is less than the maximum spacing between the two sealing surfaces in a first secondary processing portion, wherein the main processing portion and the secondary processing portion are in mutually juxtaposed relationship so that in the production of the main seam the two sealing surfaces exert a main welding pressure on the material webs and in the production of the secondary seam the two sealing surfaces exert a secondary welding pressure on the material webs, wherein the secondary welding pressure is at least portion-wise less than the main welding pressure, wherein the secondary seam produced by the secondary processing portion faces a product to be included in the material webs and the main seam produced by the main processing portion faces away from the product to be included in the material webs, wherein during the welding operation the material webs remain in their position and in the secondary processing portion at least one of the two sealing surfaces has structure elements.
A ventilation flap assembly for a vehicle, in particular a motor vehicle , comprising at least a first ventilation flap and a second ventilation flap which in each case can be adjusted from a first position into a second position, in order to allow the passage of a quantity of air, which differs in the second position in comparison with the quantity of air in the first position, through an air opening of the vehicle; and an actuating element for adjusting both the first and the second ventilation flap , wherein a first adjusting lever is attached to the first ventilation flap and a second adjusting lever is attached to the second ventilation flap , and wherein the actuating element comprises one or more drive elements (32, 32', 32") which, when the actuating element is actuated, firstly come into contact with the first adjusting lever in order to adjust the first ventilation flap thereby from its first position into its second position and subsequently come into contact with the second adjusting lever in order to adjust the second ventilation flap thereby from its first position into its second position, characterized in that the actuating element is configured, when actuated, firstly to adjust the first ventilation flap from its first position into its second position, and only then to adjust the second ventilation flap from its first position into its second position and that the one or more drive elements (32, 32', 32") are in each case formed by a projection provided on the actuating element .
A medical tool comprising: an elongated tubular section having a body wall including a plurality of slits ; a rigid needle tip coupled to a distal end of the elongated tubular section; a flexible jacket covering a portion of the elongated tubular section; and an elongated flexible member coupled to a proximal end of the elongated tubular section, wherein a distal portion of the elongated flexible member covers a proximal portion of the flexible jacket; characterized in that the flexible jacket extends into a first portion of slits of the plurality of slits and a proximal portion of the elongated flexible member extends into a second portion of slits of the plurality of slits, and wherein the second portion of slits is not covered by the flexible jacket. an elongated tubular section having a body wall including a plurality of slits ; a rigid needle tip coupled to a distal end of the elongated tubular section; a flexible jacket covering a portion of the elongated tubular section; and an elongated flexible member coupled to a proximal end of the elongated tubular section, wherein a distal portion of the elongated flexible member covers a proximal portion of the flexible jacket; characterized in that the flexible jacket extends into a first portion of slits of the plurality of slits and a proximal portion of the elongated flexible member extends into a second portion of slits of the plurality of slits, and wherein the second portion of slits is not covered by the flexible jacket.
Tool for manipulating substrates in an epitaxial reactor, comprising an arm , a gripping disc and a ball joint ; wherein said gripping disc has a seat on a lower side thereof for receiving a substrate to be manipulated; wherein said gripping disc is mounted to the arm through said ball joint placed centrally with respect to said gripping disc ; wherein said gripping disc is shaped so as to come into contact only with the upper edge of said substrate to be manipulated; wherein said gripping disc has two degrees of freedom of rotational movement with respect to said arm to allow it to adapt to the position of a substrate in a pocket of a susceptor of an epitaxial reactor. wherein said gripping disc has a seat on a lower side thereof for receiving a substrate to be manipulated; wherein said gripping disc is mounted to the arm through said ball joint placed centrally with respect to said gripping disc ; wherein said gripping disc is shaped so as to come into contact only with the upper edge of said substrate to be manipulated; wherein said gripping disc has two degrees of freedom of rotational movement with respect to said arm to allow it to adapt to the position of a substrate in a pocket of a susceptor of an epitaxial reactor.
Method for preparing saturated C n - and C 2n -alcohols where n = 4, 5 and 6 comprising the method steps of a) aldol condensation of isomeric C n -aldehydes where n = 4, 5 and 6 to obtain a mixture of C n - and α, β-unsaturated C 2n -aldehydes, wherein the proportion of unbranched aldehydes is at least 20% by weight, based on the C n -aldehydes used where n = 4, 5 and 6 b) hydrogenating the mixture of C n and α, β-unsaturated C 2n -aldehydes obtained in a) with hydrogen to obtain a mixture of saturated C n and C 2n -alcohols and c) separating the mixture of C n and C 2n -alcohols, wherein the separation of the C n -alcohols and the C 2n -alcohols is effected by means of at least one two-column system or by means of at least one dividing wall column, characterized in that the isomer ratio of the C n -alcohol obtained is adjusted by the aldol condensation carried out in step a), wherein the proportion of linear C n -alcohols is at least 10 mol% and less than 60 mol%, based on the mixture of isomeric C n -alcohols. a) aldol condensation of isomeric C n -aldehydes where n = 4, 5 and 6 to obtain a mixture of C n - and α, β-unsaturated C 2n -aldehydes, wherein the proportion of unbranched aldehydes is at least 20% by weight, based on the C n -aldehydes used where n = 4, 5 and 6 b) hydrogenating the mixture of C n and α, β-unsaturated C 2n -aldehydes obtained in a) with hydrogen to obtain a mixture of saturated C n and C 2n -alcohols and c) separating the mixture of C n and C 2n -alcohols,
A redundant control device of a high voltage direct current (HVDC) transmission system, the redundant control device comprising: a first system and a second system configured to perform a function corresponding to that of the first system ; and a first change over logic and a second change over logic configured to determine whether to switch between the first system and the second system , wherein there are optical communication modules between the first system and the first change over logic , between the first change over logic and the second change over logic , and between the second system and the second change over logic to transmit and receive data, and wherein the first change over logic and the second change over logic comprise a monitoring control unit configured to check a connection or wiring state of the optical communication modules and validity of transmission data, characterized in that the first change over logic is configured to control a first control module , the second change over logic is configured to control a second control module , and according to states of the first system and the second system , the first change over logic is configured to control the first control module and the second control module or the second change over logic is configured to control the first control module or the second control module . a first system and a second system configured to perform a function corresponding to that of the first system ; and a first change over logic and a second change over logic configured to determine whether to switch between the first system and the second system , wherein there are optical communication modules between the first system and the first change over logic , between the first change over logic and the second change over logic , and between the second system and the second change over logic to transmit and receive data, and wherein the first change over logic and the second change over logic comprise a monitoring control unit configured to check a connection or wiring state of the optical communication modules and validity of transmission data, characterized in that the first change over logic is configured to control a first control module , the second change over logic is configured to control a second control module , and
An adhesive composition, comprising a polyester resin (A) and an anti-fogging agent (C), and satisfying the following requirement : Glass transition temperature of the polyester resin (A) determined as indicated in the description is from -30 to 30°C; wherein the polyester resin (A) is a copolymerized polyester resin consisting of a dicarboxylic acid component and a glycol component, wherein the dicarboxylic acid component comprises an aromatic dicarboxylic acid and an aliphatic dicarboxylic acid with their molar ratio in terms of (aromatic dicarboxylic acid) / (aliphatic dicarboxylic acid) is (50 to 99) / (50 to 1). Glass transition temperature of the polyester resin (A) determined as indicated in the description is from -30 to 30°C;
A method of manufacturing a three-dimensional lens using an additive manufacturing process, the method comprising: inputting a lens template into a controller ; depositing a first filamentous layer of lens material onto a work surface according to the lens template; and successively depositing additional filamentous layers of the lens material onto the first layer according to the lens template to build the three-dimensional lens, wherein a transmission scattering profile for transmitted light is part of the lens template; and characterized in that the lens template stipulates a nozzle diameter and a raster angle of the printer to achieve the transmission scattering profile. inputting a lens template into a controller ; depositing a first filamentous layer of lens material onto a work surface according to the lens template; and successively depositing additional filamentous layers of the lens material onto the first layer according to the lens template to build the three-dimensional lens, wherein a transmission scattering profile for transmitted light is part of the lens template; and characterized in that the lens template stipulates a nozzle diameter and a raster angle of the printer to achieve the transmission scattering profile.
A method of forming a composite active material structure for a Lithium Ion Battery (LIB) anode component, the method comprising: disposing a porous substrate structure comprising graphite powder onto a copper (Cu) or Nickel (Ni) foil, the graphite powder being in the form of a plurality of graphite particles having an average size of 1 micron to 50 microns; depositing a plurality of discrete silicon-comprising nanowires directly onto one or more surfaces of the graphite particles in an electrolytic cell via electrochemical deposition process, said depositing being carried out without the use of a growth template to allow epitaxial formation of the silicon-comprising nanowires according to the natural crystal structure, wherein the electrolytic cell comprises an electrochemically stable current electrode as the EC anode, the porous substrate structure as the EC cathode, and a reference electrode; wherein the nanowires are formed directly onto the one or more surfaces of the graphite particles by reduction of one or more silicon(Si)-comprising precursor materials dissolved in an electrolyte solution contained in the electrolytic cell at an operating temperature equal or less than 80°C; and wherein upon formation the plurality of discrete silicon-comprising nanowires exhibit at least 95% crystallinity and are in direct physical contact with the one or more surfaces of the graphite particles. disposing a porous substrate structure comprising graphite powder onto a copper (Cu) or Nickel (Ni) foil, the graphite powder being in the form of a plurality of graphite particles having an average size of 1 micron to 50 microns; depositing a plurality of discrete silicon-comprising nanowires directly onto one or more surfaces of the graphite particles in an electrolytic cell via electrochemical deposition process, said depositing being carried out without the use of a growth template to allow epitaxial formation of the silicon-comprising nanowires according to the natural crystal structure, wherein the electrolytic cell comprises an electrochemically stable current electrode as the EC anode, the porous substrate structure as the EC cathode, and a reference electrode; wherein the nanowires are formed directly onto the one or more surfaces of the graphite particles by reduction of one or more silicon(Si)-comprising precursor materials dissolved in an electrolyte solution contained in the electrolytic cell at an operating temperature equal or less than 80°C; and wherein upon formation the plurality of discrete silicon-comprising nanowires exhibit at least 95% crystallinity and are in direct physical contact with the one or more surfaces of the graphite particles.
A connecting element for a patient interface , wherein the connecting element comprises two straps for connecting to the patient interface , wherein the straps comprise a beginning and an end , wherein at least three inflection points lie between the beginning and the end and at least four portions lie between the beginning , the at least three inflection points , and the end , wherein the connecting element also comprises two separate behind-the-ear elements , each for coupling to one of the two straps , wherein the behind-the-ear elements are arranged on and/or behind the ear in a use state, wherein a coupling system adjacent to the beginning is configured and designed to couple the strap to the patient interface , wherein an end portion is arranged adjacent to the end , to which end portion the respective behind-the-ear element can be coupled, wherein the behind-the-ear elements each comprise at least one retaining element , each of which can be coupled to the end portion of one of the two straps , characterized in that the retaining elements are designed as a hollow body with a lumen, into which the end portion of the respective strap is placed for coupling at at least one position, wherein the retaining elements are coupled in a displaceable manner at any positions of the respective end portions and the length of the connecting element can thereby be adjusted.
A curable two-part composition comprising: a first part comprising an organoborane initiator component and a vinyl ether component and wherein the organoborane initiator component comprises a trialkyl borane; and a second part comprising an activator for the organoborane component and a curable acrylate or methacrylate component. a first part comprising an organoborane initiator component and a vinyl ether component and wherein the organoborane initiator component comprises a trialkyl borane; and a second part comprising an activator for the organoborane component and a curable acrylate or methacrylate component.
An antibody capable of binding a recombinant antigen comprising the amino acid sequence of SEQ ID NO: 1 or a growth factor-prodomain complex (GPC) which comprises SEQ ID NO: 38; wherein said antibody modulates the release of TGF-β1 from a GPC; wherein optionally said recombinant antigen is a protein complex comprising: i. a protein selected from the group consisting of latent TGF-β binding protein 1S (LTBP1S), glycoprotein A repetitions predominant (GARP), LTBP1, LTBP2, LTBP3, LTBP4, fibrillin-1, fibrillin-2, fibrillin-3, fibrillin-4, leucine rich repeat containing (LRRC33), perlecan, decorin, elastin and collagen, and/or ii. a protein comprising one or more amino acid sequences selected from the group consisting of SEQ ID NOs: 156, 159, 143-155, 157, 158, 160, 161, 286-294 and a combination or fragment thereof. i. a protein selected from the group consisting of latent TGF-β binding protein 1S (LTBP1S), glycoprotein A repetitions predominant (GARP), LTBP1, LTBP2, LTBP3, LTBP4, fibrillin-1, fibrillin-2, fibrillin-3, fibrillin-4, leucine rich repeat containing (LRRC33), perlecan, decorin, elastin and collagen, and/or ii. a protein comprising one or more amino acid sequences selected from the group consisting of SEQ ID NOs: 156, 159, 143-155, 157, 158, 160, 161, 286-294 and a combination or fragment thereof.