mhurhangee/ep-ind-claims huggingface dataset:
A multi-layered article made of an elastomeric composition comprising at least one elastomer, said article having at least one surface comprising: - nitrogen-containing groups and - at least one layer adhered to said surface comprising at least one metal compound selected from the group consisting of: Cu, Ni, Pd, Co, Zn, Ag, Au, Pt, Sn; wherein said elastomer comprises recurring units derived from at least one (per)fluorinated monomer, characterized in that said nitrogen-containing groups are grafted onto said surface via an atmospheric plasma process performed in the presence of a nitrogen-containing gas, which is a mixture of N 2 and H 2. - nitrogen-containing groups and - at least one layer adhered to said surface comprising at least one metal compound selected from the group consisting of: Cu, Ni, Pd, Co, Zn, Ag, Au, Pt, Sn;
A mold for fabricating a multi-component optical system blank, which is shaped or formed from a first optical material to comprise: a cup portion, wherein the cup portion comprises an inner wall and a first cavity defined by the inner wall; and wherein the mold comprises a first optical component, wherein the mold comprises a portion of the blank, wherein the first optical material is integral to and comprises a constituent of the blank, characterized in that the mold further comprises; an attachment portion extending from the cup portion; and wherein the inner wall is concave. a cup portion, wherein the cup portion comprises an inner wall and a first cavity defined by the inner wall; and wherein the mold comprises a first optical component, wherein the mold comprises a portion of the blank, wherein the first optical material is integral to and comprises a constituent of the blank, characterized in that the mold further comprises; an attachment portion extending from the cup portion; and wherein the inner wall is concave.
A method implemented by logic for user identification comprising: receiving a button pressure signature specifying a sequence of button pressure values sampled from a single button press while a corresponding single identified button (20, 60) of a user input device is pressed by a user; identifying the user of the user input device based on the button pressure signature; and outputting a message identifying the identified button (20, 60) and the identified user. receiving a button pressure signature specifying a sequence of button pressure values sampled from a single button press while a corresponding single identified button (20, 60) of a user input device is pressed by a user; identifying the user of the user input device based on the button pressure signature; and outputting a message identifying the identified button (20, 60) and the identified user.
Hot-forming tool comprising an upper tool and a lower tool, which are movable towards each other and when the hot forming tool is closed a mould cavity is formed between upper tool and lower tool, wherein the upper tool and/or the lower tool is/are subdivided into at least two segments (4, 5, 6, 7, 8, 9), wherein one segment is designed as a heating segment (6, 9) characterised in that the heating segment (6, 9) has a compensating element on a side opposite the mould cavity so that thermal expansion of the heating segment (6, 9) in the press stroke direction is compensated.
A method for producing chewing gums comprising a step of mixing the ingredients, a step of extruding the mixture, a step of dusting with a dusting powder, a step of rolling and a step of forming/cutting, wherein said dusting powder comprises a pulverulent composition formed of agglomerates of crystals, said pulverulent composition comprising at least one polyol and being obtained by wet granulation of crystals, by using a vertical continuous mixer-agglomerator equipped with a shaft with knives positioned as blades and with a system for spraying liquids via injection nozzles, exhibiting a flow grade of between 55 and 90 and comprising less than 60% of particles with a diameter of less than 75 μm.
An identity authentication method, comprising: obtaining a collected audio and video stream, wherein the audio and video stream is generated by a target object to be authenticated, wherein the target object is a user; determining whether lip reading and voice in the audio and video stream are consistent, performing voice recognition on an audio stream in the audio and video stream to obtain a voice content, and, if the lip reading and the voice are consistent, using the obtained voice content as an object identifier of the target object; obtaining a model physiological feature corresponding to the object identifier from pre-stored object registration information, if the pre-stored object registration information comprises the object identifier, wherein determining whether lip reading and voice in the audio and video stream are consistent, performing voice recognition on an audio stream in the audio and video stream to obtain the voice content, using the obtained voice content as the object identifier of the target object, and obtaining the model physiological feature corresponding to the object identifier from the pre-stored object registration information are executed in parallel; performing (505, 506) physiological recognition on the audio and video stream to obtain a physiological feature of the target object; and comparing (507, 508) the physiological feature of the target object with the model physiological feature to obtain a comparison result, and if the comparison result satisfies an authentication condition, determining that the target object has been authenticated. obtaining a collected audio and video stream, wherein the audio and video stream is generated by a target object to be authenticated, wherein the target object is a user; determining whether lip reading and voice in the audio and video stream are consistent, performing voice recognition on an audio stream in the audio and video stream to obtain a voice content, and, if the lip reading and the voice are consistent, using the obtained voice content as an object identifier of the target object; obtaining a model physiological feature corresponding to the object identifier from pre-stored object registration information, if the pre-stored object registration information comprises the object identifier, wherein determining whether lip reading and voice in the audio and video stream are consistent, performing voice recognition on an audio stream in the audio and video stream to obtain the voice content, using the obtained voice content as the object identifier of the target object, and obtaining the model physiological feature corresponding to the object identifier from the pre-stored object registration information are executed in parallel; performing (505, 506) physiological recognition on the audio and video stream to obtain a physiological feature of the target object; and comparing (507, 508) the physiological feature of the target object with the model physiological feature to obtain a comparison result, and if the comparison result satisfies an authentication condition, determining that the target object has been authenticated.
Method for making patterns on the surface of a substrate by self-assembly of block copolymer, comprising the following steps: - forming (F1-F3) on the surface of the substrate a first mask comprising recesses (21a, 21c), the recesses of the mask delimiting on the surface of the substrate areas to be metallised; - forming (F4-F6) an assembly guide above the first mask, such that the assembly guide delimits a surface covering two contact areas (22a, 22c) and a solid portion of the first mask arranged between the two contact areas (22a, 22c), the two contact areas (22a, 22c) belonging respectively to two areas to be metallised; - depositing on said surface a block copolymer layer; - reorganising the block copolymer layer; - eliminating one of the phases of the reorganised block copolymer layer, resulting in a plurality of holes extending into the block copolymer layer above the two contact areas (22a, 22c) and said solid portion of the first mask; - widening by etching the holes of the block copolymer layer, until a continuous trench is formed above the two contact areas (22a, 22c) and said solid portion of the first mask; - transferring (F10-F11) to the surface of the substrate, through the recesses of the first mask, first and second parts of the continuous trench located above the two contact areas (22a, 22c), thus resulting in said patterns, said solid portion of the first mask preventing transfer to the surface of the substrate of a third part of the continuous trench located above said solid portion of the first mask. - forming (F1-F3) on the surface of the substrate a first mask comprising recesses (21a, 21c), the recesses of the mask delimiting on the surface of the substrate areas to be metallised; - forming (F4-F6) an assembly guide above the first mask, such that the assembly guide delimits a surface covering two contact areas (22a, 22c) and a solid portion of the first mask arranged between the two contact areas (22a, 22c), the two contact areas (22a, 22c) belonging respectively to two areas to be metallised; - depositing on said surface a block copolymer layer; - reorganising the block copolymer layer; - eliminating one of the phases of the reorganised block copolymer layer, resulting in a plurality of holes extending into the block copolymer layer above the two contact areas (22a, 22c) and said solid portion of the first mask; - widening by etching the holes of the block copolymer layer, until a continuous trench is formed above the two contact areas (22a, 22c) and said solid portion of the first mask; - transferring (F10-F11) to the surface of the substrate, through the recesses of the first mask, first and second parts of the continuous trench located above the two contact areas (22a, 22c), thus resulting in said patterns, said solid portion of the first mask preventing transfer to the surface of the substrate of a third part of the continuous trench located above said solid portion of the first mask.
Foundation structure for offshore constructions, in particular foundation structure for offshore wind turbines, comprising a number of first, second and grounding profiles, whereby the first profiles comprise rods in axial alignment, the second profiles comprise rods in an angled alignment relative to the first profiles and the grounding profiles comprise bush-like members contacting the ground with one axial end, whereby the foundation structure is fixed to the ground by means of grounding piles penetrating through the bush-like members into the ground, wherein the bush-like members are coaxially aligned with the first profiles.
A laser welding method for flat wires in which a first side surface at a first end of a first flat wire coated with a first insulating film, the first side surface being stripped of the first insulating film, and a second side surface at a second end of a second flat wire coated with a second insulating film, the second side surface being stripped of the second insulating film, are butted together, and a laser beam is applied to a first end surface of the first flat wire and a second end surface of the second flat wire to weld together the first side surface and the second side surface, the laser welding method comprising: applying the laser beam in a loop shape inside the first end surface to form a molten pool; and applying the laser beam inside the first end surface while gradually increasing a diameter of a loop-shaped trajectory of the laser beam to allow the molten pool to reach the first side surface and the second side surface. applying the laser beam in a loop shape inside the first end surface to form a molten pool; and applying the laser beam inside the first end surface while gradually increasing a diameter of a loop-shaped trajectory of the laser beam to allow the molten pool to reach the first side surface and the second side surface.
A method for triggering a second camera to perform one or more actions prior to an object appearing in the field of view of the second camera, wherein the second camera is arranged in a camera system including the second camera and at least a first device, and wherein a location and a field of view is known for the second camera and a location is known for the first device, the method comprising: receiving, in the second camera, information indicating that the object is approaching the field of view of the second camera, wherein the received information is based on information from the first device indicating a location and a direction of movement of the object, and in response to the received information, triggering the second camera to perform the following action prior to the object appearing in the field of view of the second camera: generating an intra frame or initiating an intra refresh procedure. receiving, in the second camera, information indicating that the object is approaching the field of view of the second camera, wherein the received information is based on information from the first device indicating a location and a direction of movement of the object, and in response to the received information, triggering the second camera to perform the following action prior to the object appearing in the field of view of the second camera: generating an intra frame or initiating an intra refresh procedure.
Headlamp for a motor vehicle, comprising a light module movably mounted in a housing and adjusting means for adjusting the spatial position of the light module in the housing, wherein the light module is arranged on a beam which is pivotable about a horizontal and a vertical axis (y, z), which beam is coupled to the adjusting means comprising an adjusting mechanism and an actuator moving the adjusting mechanism, wherein the adjusting mechanism is designed in such a way that during operation of the actuator separate pivoting of the beam takes place both about the horizontal and about the vertical axis (y, z), characterised in that the adjusting mechanism has a first and a second movable adjusting element (10, 13) which are each coupled to the beam, wherein the beam is pivotable about the horizontal axis (y) via the first adjusting element and about the vertical axis (z) via the second adjusting element and of which the first adjusting element is movable via the actuator to pivot about one axis (y) and during the movement can be brought temporarily into operative connection with the second adjusting element to pivot about the other axis (z).
A method for forming an aluminum alloy powder, the method comprising: a compacting step that applies a first pressure to an aluminum alloy powder to obtain a sparsely compact material, the aluminum alloy powder comprising microparticles of an aluminum alloy having a particle diameter of 300 micrometers or less, the sparsely compact material being such that the microparticles are intertangled and in contact with one another by plastic deformation while leaving spaces therebetween; and a forming step that applies a second pressure to the sparsely compact material at a forming temperature to obtain a dense formed body in which the microparticles are metallically bonded to one another, the forming temperature being a temperature at which no liquid phase occurs at surfaces of the microparticles, a pressure ratio of the second pressure to the first pressure (P2/P1) being 1.2 or more, wherein the aluminum alloy has an alloy composition comprising, when whole thereof is assumed to be 100 mass% (referred simply to as "%", hereinafter), iron (Fe): 2-7%, zirconium (Zr): 0.6-1.5%, titanium (Ti): 0.5-1%, and optionally magnesium (Mg): 0.5-2.2%, and modifying elements including Cr, Mn, Co, Ni, Sc, Y, Ca, V, Hf and Nb, the balance being aluminum (Al) and inevitable impurities. a compacting step that applies a first pressure to an aluminum alloy powder to obtain a sparsely compact material, the aluminum alloy powder comprising microparticles of an aluminum alloy having a particle diameter of 300 micrometers or less, the sparsely compact material being such that the microparticles are intertangled and in contact with one another by plastic deformation while leaving spaces therebetween; and a forming step that applies a second pressure to the sparsely compact material at a forming temperature to obtain a dense formed body in which the microparticles are metallically bonded to one another, the forming temperature being a temperature at which no liquid phase occurs at surfaces of the microparticles, a pressure ratio of the second pressure to the first pressure (P2/P1) being 1.2 or more,
A copper alloy strip which is a rolled material, the rolled material containing: from 0 to 5.0% by mass of Ni and/or from 0 to 2.5% by mass of Co, the total amount of Ni + Co being from 0.2 to 5.0% by mass; from 0.2 to 1.5% by mass of Si; and optionally one or more of Sn, Zn, Mg, Cr and Mn in a total amount of from 0.005 to 2.0% by mass, the balance being copper and unavoidable impurities, wherein the rolled material satisfies the relationship: A 0 /A ≤ 1.000, in which A 0 represents a projected area of an indentation remaining after carrying out a Vickers hardness test by maintaining a square pyramidal indenter for 10 seconds while applying a test force with a load of 1 kg to a surface of a base material and releasing the test force; and A represents an area connecting vertices of the indenter, and wherein the rolled material satisfies the relationship: 0.1 ≤ I /I 0 < 1.0, in which I represents an integrated X-ray diffraction intensity of a diffraction peak of a plane by conducting a measurement of θ/2θ on a plate surface of a rolled material sample, and I 0 represents an integrated X-ray diffraction intensity of a plane by conducting at the same time a measurement of a randomly oriented pure copper powder sample, the X-ray diffractometer used to make the measurements being operated under the following conditions: Target: Co tube; Tube Voltage: 30 kV; Tube Current: 100 mA; Scanning Speed: 5°/min; Sampling Width: 0.02°; and Measurement Range (2θ): 5° to 150°. from 0 to 5.0% by mass of Ni and/or from 0 to 2.5% by mass of Co, the total amount of Ni + Co being from 0.2 to 5.0% by mass; from 0.2 to 1.5% by mass of Si; and optionally one or more of Sn, Zn, Mg, Cr and Mn in a total amount of from 0.005 to 2.0% by mass, the balance being copper and unavoidable impurities, wherein the rolled material satisfies the relationship: A 0 /A ≤ 1.000, in which A 0 represents a projected area of an indentation remaining after carrying out a Vickers hardness test by maintaining a square pyramidal indenter for 10 seconds while applying a test force with a load of 1 kg to a surface of a base material and releasing the test force; and A represents an area connecting vertices of the indenter, and wherein the rolled material satisfies the relationship: 0.1 ≤ I /I 0 < 1.0, in which I represents an integrated X-ray diffraction intensity of a diffraction peak of a plane by conducting a measurement of θ/2θ on a plate surface of a rolled material sample, and I 0 represents an integrated X-ray diffraction intensity of a plane by conducting at the same time a measurement of a randomly oriented pure copper powder sample, the X-ray diffractometer used to make the measurements being operated under the following conditions: Target: Co tube; Tube Voltage: 30 kV; Tube Current: 100 mA; Scanning Speed: 5°/min; Sampling Width: 0.02°; and Measurement Range (2θ): 5° to 150°. Target: Co tube; Tube Voltage: 30 kV; Tube Current: 100 mA; Scanning Speed: 5°/min; Sampling Width: 0.02°; and Measurement Range (2θ): 5° to 150°.
An image processing device comprising: an image obtainer that obtains a first captured image from a first image capturing device including a mask including at least two apertures; an information obtainer that obtains aperture pattern information corresponding to a pattern of the at least two apertures, characterised by a noise adder that adds, to the first captured image, (i) noise having frequency characteristics determined the from frequency characteristics of the mask based on the pattern of the at least two apertures corresponding to aperture pattern information, or (ii) noise having a frequency band determined from a band of the mask corresponding to the frequency characteristics of the mask; and an outputting unit that outputs the first captured image to which the noise is added. an image obtainer that obtains a first captured image from a first image capturing device including a mask including at least two apertures; an information obtainer that obtains aperture pattern information corresponding to a pattern of the at least two apertures, characterised by a noise adder that adds, to the first captured image, (i) noise having frequency characteristics determined the from frequency characteristics of the mask based on the pattern of the at least two apertures corresponding to aperture pattern information, or (ii) noise having a frequency band determined from a band of the mask corresponding to the frequency characteristics of the mask; and an outputting unit that outputs the first captured image to which the noise is added.
An apparatus comprising: a plurality of tensor operation calculators each configured to perform a type of tensor operation of a plurality of types of tensor operations, each of the tensor operations corresponding to an operation involving one or more tensors; the plurality of tensor operation calculators comprising multiple instances of tensor operation calculators configured to perform a first type of the tensor operations; a plurality of tensor register files, each of the tensor register files being dedicated to one of the plurality of tensor operation calculators; and logic (104, 106, 224, 226, 228, 234, 308) configured to store tensors in the plurality of tensor register files in accordance with the type of tensor operation to be performed on the respective tensors; wherein the logic is further configured to store multiple separate copies of tensors, for which the apparatus is to perform the first type of tensor operation, in each of the dedicated tensor register files that are associated with the multiple instances of the tensor operation calculators configured to perform the first type of tensor operation, to the exclusion of others of the plurality of tensor register files. a plurality of tensor operation calculators each configured to perform a type of tensor operation of a plurality of types of tensor operations, each of the tensor operations corresponding to an operation involving one or more tensors; the plurality of tensor operation calculators comprising multiple instances of tensor operation calculators configured to perform a first type of the tensor operations; a plurality of tensor register files, each of the tensor register files being dedicated to one of the plurality of tensor operation calculators; and logic (104, 106, 224, 226, 228, 234, 308) configured to store tensors in the plurality of tensor register files in accordance with the type of tensor operation to be performed on the respective tensors; wherein the logic is further configured to store multiple separate copies of tensors, for which the apparatus is to perform the first type of tensor operation, in each of the dedicated tensor register files that are associated with the multiple instances of the tensor operation calculators configured to perform the first type of tensor operation, to the exclusion of others of the plurality of tensor register files.
Machining steel with high cut by chip removal properties with carbon, silicon, manganese, sulphur, phosphor, aluminium and iron, characterised in that it additionally comprises bismuth and a defined amount of oxygen, wherein the oxygen efficacy during transfer of the steel towards steel casting is 20 to 70 ppm, that the evenly distributed sulfide inclusions have an almost global form and are slightly deformed and that the machining steel comprises the following component ratio by mass fraction: Carbon max. 0,16; Silicon max. 0,15; Manganese 1,2 - 1,68 Sulfur 0,2 - 0,4; Phosphor 0,06 - 0,15; Aluminium max. 0,01; Bismuth 0,03-0,05 or 0,06-0,12 Total oxygen content 0,003-0,015; Iron and impurities remainder.