mhurhangee/patent-ind-claim-en huggingface dataset:
Method for recycling fibre composite materials, in which elements containing fibre composite material are passed into an impact reactor and comminuted by mechanical stress, the impact reactor having a cylindrical casing which is provided with a base at one end face and with a cover at the other end face, a rotatably mounted impact body being assigned to the base, the cylindrical casing, the base and the cover enclosing an impact reactor space, and the cover being provided with an opening for receiving the elements, the comminution by the impact body taking place in such a way as to result in fibre needles with an adhesive matrix as a comminution product.
An anchoring module connectable to a well-operation device and for constituting part of a well tool in a well , the well being defined by a wall and the well having an extent in an axial direction (A), the anchoring module , in its position of application, having an extent in the axial direction (A) of the well , and the anchoring module including a displacement device having a contact surface, the displacement device being arranged to push said contact surface, in its position of application, against a portion of the wall of the well to press the anchoring module against an opposite portion of the wall of the well, so as to press the well tool against the well wall and thus clamp the well tool between the displacement device and the well wall , characterized in that the displacement device is oblong in the axial direction (A) of the anchoring module so that the cross section of the displacement device is also oblong, and in that the contact surface extends over the full cross section of the displacement device .
A graphics processor , comprising: an arbiter circuit having vertex data provided at a first input and pixel data provided at a second input, wherein the arbiter circuit is configured to select to transmit the vertex data at the first input or the pixel data at the second input; and a unified shader coupled to the arbiter circuit , wherein the unified shader is configured to simultaneously perform the vertex operations and the pixel operations on the vertex data and the pixel data by switching between the vertex operations and the pixel operations, and the unified shader comprises: a register block coupled to the arbiter circuit configured to maintain the vertex data and the pixel data in the unified shader , a processor unit coupled to the register block , wherein the processor unit is configured to execute vertex operations and pixel operations, and a sequencer coupled to the processor unit and the register block , wherein the sequencer is operative to cause the processor unit to execute the vertex operations and the pixel operations on the vertex data and the pixel data. an arbiter circuit having vertex data provided at a first input and pixel data provided at a second input, wherein the arbiter circuit is configured to select to transmit the vertex data at the first input or the pixel data at the second input; and a unified shader coupled to the arbiter circuit , wherein the unified shader is configured to simultaneously perform the vertex operations and the pixel operations on the vertex data and the pixel data by switching between the vertex operations and the pixel operations, and the unified shader comprises: a register block coupled to the arbiter circuit configured to maintain the vertex data and the pixel data in the unified shader , a processor unit coupled to the register block , wherein the processor unit is configured to execute vertex operations and pixel operations, and a sequencer coupled to the processor unit and the register block , wherein the sequencer is operative to cause the processor unit to execute the vertex operations and the pixel operations on the vertex data and the pixel data. a register block coupled to the arbiter circuit configured to maintain the vertex data and the pixel data in the unified shader , a processor unit coupled to the register block , wherein the processor unit is configured to execute vertex operations and pixel operations, and a sequencer coupled to the processor unit and the register block , wherein the sequencer is operative to cause the processor unit to execute the vertex operations and the pixel operations on the vertex data and the pixel data.
A therapeutic compression strip extending mainly in a direction of elongation (L) and having a first face and a second face , opposite the first face , said strip comprising a fabric formed of weft yarns extending in a transverse direction (T) substantially perpendicular to the direction of elongation (L), and of warp yarns extending substantially in the direction of elongation (L), said warp yarns comprising at least: - elastic yarns , - first yarns extending mainly over at least part of the first face and forming first fastening elements on said first face , - second yarns extending mainly over at least part of the second face and forming second fastening elements on said second face , the second fastening elements being arranged to cooperate with the first fastening elements when at least part of the first face is applied to at least part of the second face so as to reversibly fasten said first face to said second face . - elastic yarns , - first yarns extending mainly over at least part of the first face and forming first fastening elements on said first face , - second yarns extending mainly over at least part of the second face and forming second fastening elements on said second face ,
A heat dissipation module , adapted to be used in an electronic device , the electronic device having a heat source , the heat dissipation module comprising: an evaporator , thermally contacting the heat source ; a pipe , having two opposite end portions (E1, E2) to connect to the evaporator to form a loop, characterized in that : at least one of the end portions (E1, E2) of the pipe with a diameter gradually converging towards the evaporator , configured to spray a working fluid (F1), filled in the loop, uniformly to each portion of the evaporator in collaboration with a gradually converging structure of the inner space of the evaporator towards the end portions. an evaporator , thermally contacting the heat source ; a pipe , having two opposite end portions (E1, E2) to connect to the evaporator to form a loop, characterized in that : at least one of the end portions (E1, E2) of the pipe with a diameter gradually converging towards the evaporator , configured to spray a working fluid (F1), filled in the loop, uniformly to each portion of the evaporator in collaboration with a gradually converging structure of the inner space of the evaporator towards the end portions.
A high gamma prime (y') nickel based welding material for repair and 3D additive manufacturing of turbine engine components, comprising by wt. %: - Chromium from 9.0 to 11.0 %, - Cobalt from 16.0 to 24.0 %, - Molybdenum from 1.0 to 1.4 %, - Tungsten from 5.0 to 5.8 %, - Tantalum from 1.5 to 1.9 %, - Aluminum from 4.5 to 5.5 %, - Rhenium from 1.5 to 2.5 %, - Iron from 0.2 to 0.8 %, - Hafnium from 0.1 to 0.3 %, - Boron from 0.005 to 0.02 %, - Carbon from 0.05 to 0.12 %, and - Nickel with impurities to balance. - Chromium from 9.0 to 11.0 %, - Cobalt from 16.0 to 24.0 %, - Molybdenum from 1.0 to 1.4 %, - Tungsten from 5.0 to 5.8 %, - Tantalum from 1.5 to 1.9 %, - Aluminum from 4.5 to 5.5 %, - Rhenium from 1.5 to 2.5 %, - Iron from 0.2 to 0.8 %, - Hafnium from 0.1 to 0.3 %, - Boron from 0.005 to 0.02 %, - Carbon from 0.05 to 0.12 %, and - Nickel with impurities to balance.
A clutch for securing a post in a body piercing, comprising: a plate section having a post hole therethrough and a pair of cantilever spring elements extending from opposite edges of the plate section and proximate to one another and aligned such that the cantilever spring elements partially intersect opposite sides of an imaginary cylindrical surface extending perpendicularly from the post hole on a backside of the plate section ; and a dome shield for blocking the post and enclosing the cantilever spring elements and secured to the plate section such that the imaginary cylindrical surface intersects the dome shield , characterized by the dome shield including at least one ventilation hole for reducing moisture accumulation within the dome shield . a plate section having a post hole therethrough and a pair of cantilever spring elements extending from opposite edges of the plate section and proximate to one another and aligned such that the cantilever spring elements partially intersect opposite sides of an imaginary cylindrical surface extending perpendicularly from the post hole on a backside of the plate section ; and a dome shield for blocking the post and enclosing the cantilever spring elements and secured to the plate section such that the imaginary cylindrical surface intersects the dome shield , characterized by the dome shield including at least one ventilation hole for reducing moisture accumulation within the dome shield .
Method for unpacking and separating infusion bags into singles for supplying the bags to a device for further processing, said method having the following method steps: - open an outer packaging , in which the infusion bags are present, by means of an opening device , wherein the infusion bags are fastened in groups to a holding device inside the outer packaging , - separate the group of infusion bags , which are fastened to the holding device , from the outer packaging by means of a separating device , - position the holding device with the infusion bags fastened thereon in a transport device by means of a positioning device , - process the infusion bags by means of a device for further processing. - open an outer packaging , in which the infusion bags are present, by means of an opening device , wherein the infusion bags are fastened in groups to a holding device inside the outer packaging , - separate the group of infusion bags , which are fastened to the holding device , from the outer packaging by means of a separating device , - position the holding device with the infusion bags fastened thereon in a transport device by means of a positioning device , - process the infusion bags by means of a device for further processing.
A water electrolysis device, comprising: an electrolyzer comprising a cathode , the cathode generating hydrogen gas during electrolyzing water; characterized by further comprising, an air supplying tube receiving the hydrogen gas generated by the electrolyzer and comprising an air supplying interface ; an air pump comprising a duct , the air pump drawing air and the duct being coupled to the air supplying interface of the air supplying tube for receiving the air to dilute the hydrogen gas, wherein a lead angle (A) between the air supplying interface and the air supplying tube is less than 90 degrees and is configured for guiding the air from the duct into the air supplying tube ; and an atomizing/volatile gas mixing tank coupled to the air supplying tube and receiving the diluted hydrogen gas, the atomizing/volatile gas mixing tank selectively generating an atomizing gas and mixing it with the diluted hydrogen gas to form a health gas, wherein the atomizing gas is water vapor, atomizing potions or volatile essential oil. an electrolyzer comprising a cathode , the cathode generating hydrogen gas during electrolyzing water; characterized by further comprising, an air supplying tube receiving the hydrogen gas generated by the electrolyzer and comprising an air supplying interface ; an air pump comprising a duct , the air pump drawing air and the duct being coupled to the air supplying interface of the air supplying tube for receiving the air to dilute the hydrogen gas, wherein a lead angle (A) between the air supplying interface and the air supplying tube is less than 90 degrees and is configured for guiding the air from the duct into the air supplying tube ; and an atomizing/volatile gas mixing tank coupled to the air supplying tube and receiving the diluted hydrogen gas, the atomizing/volatile gas mixing tank selectively generating an atomizing gas and mixing it with the diluted hydrogen gas to form a health gas, wherein the atomizing gas is water vapor, atomizing potions or volatile essential oil.
A camera assembly having a housing , a transparent dome , and configured to receive at least one camera head arranged in the housing , inside the transparent dome , wherein - the housing comprises a cooling arrangement having a heat dissipation portion arranged within the housing , said heat dissipating portion forming a channel for cooling airflow, which channel extends through an inlet in the transparent dome , wherein - said heat dissipation portion is made from a material configured to transfer heat efficiently, and wherein - the heat dissipation portion constitutes a physical barrier between the channel and a compartment where said at least one camera head is arranged. - the housing comprises a cooling arrangement having a heat dissipation portion arranged within the housing , said heat dissipating portion forming a channel for cooling airflow, which channel extends through an inlet in the transparent dome , wherein - said heat dissipation portion is made from a material configured to transfer heat efficiently, and wherein - the heat dissipation portion constitutes a physical barrier between the channel and a compartment where said at least one camera head is arranged.
An aqueous ink composition comprising, at least, water, a pigment (but excluding titanium oxides in which a pigment surface has been treated with an organic compound), a pigment dispersing resin, two or more types of alkyl polyols having boiling points of at least 180°C but not more than 250°C at 1 atmosphere, and a binder resin, wherein the pigment dispersing resin has an alkyl group of 10 to 36 carbon atoms, and a total amount of the alkyl polyols, relative to a total weight of the aqueous ink composition, is at least 10% by weight but not more than 30% by weight, the binder resin contains a water-soluble resin having an acid value of 10 to 80 mgKOH/g.
Device for checking a colored security feature produced by means of a security ink on a beverage package, at least comprising: an illumination device for broadband illumination of at least a portion of the beverage package or the beverage package component, camera means for capturing at least five images of the color security feature of the beverage package or the beverage package component during illumination of the beverage package or the beverage package component by means of the illumination means , each of the images representing an amount of reflected light of a predetermined wavelength, the wavelengths differing from each other at least with respect to the images by a respective predefined wavelength range and lying within a color change interval of the security color and an evaluation device for determining the amount of reflected light per detected exposure and for matching a mathematical processing of the detected values with a reference criterion and for outputting a result value or result signal as a function of the matching, wherein the mathematical processing corresponds to the first derivative of a function generated from the acquired values, wherein a result value describing the highest slope of the curve defined by the values is determined for the adjustment. an illumination device for broadband illumination of at least a portion of the beverage package or the beverage package component, camera means for capturing at least five images of the color security feature of the beverage package or the beverage package component during illumination of the beverage package or the beverage package component by means of the illumination means , each of the images representing an amount of reflected light of a predetermined wavelength, the wavelengths differing from each other at least with respect to the images by a respective predefined wavelength range and lying within a color change interval of the security color and an evaluation device for determining the amount of reflected light per detected exposure and for matching a mathematical processing of the detected values with a reference criterion and for outputting a result value or result signal as a function of the matching, wherein the mathematical processing corresponds to the first derivative of a function generated from the acquired values, wherein a result value describing the highest slope of the curve defined by the values is determined for the adjustment.
A method for producing a power module , wherein the method comprises: - providing a first plate , - providing a second plate , - arranging a first number N of power semiconductor bodies (13 to 15) on the first plate , - providing a first number N of preforms (43 to 45), - providing a first number N of flexible structures (23 to 25), and - forming a stack comprising, in this order, the first plate , the first number N of power semiconductor bodies (13 to 15), the first number N of preforms (43 to 45), the first number N of flexible structures (23 to 25) and the second plate , wherein - the first number N of flexible structures (23 to 25) are additive manufactured on the first number N of preforms (43 to 45), - wherein the first number N is greater than 1, and - wherein the first number N of flexible structures (23 to 25) are configured to compensate height differences of the first number N of the power semiconductor bodies (13 to 15) . - providing a first plate , - providing a second plate , - arranging a first number N of power semiconductor bodies (13 to 15) on the first plate , - providing a first number N of preforms (43 to 45), - providing a first number N of flexible structures (23 to 25), and - forming a stack comprising, in this order, the first plate , the first number N of power semiconductor bodies (13 to 15), the first number N of preforms (43 to 45), the first number N of flexible structures (23 to 25) and the second plate , wherein - the first number N of flexible structures (23 to 25) are additive manufactured on the first number N of preforms (43 to 45), - wherein the first number N is greater than 1, and - wherein the first number N of flexible structures (23 to 25) are configured to compensate height differences of the first number N of the power semiconductor bodies (13 to 15) .
Method for operating a medical image recording device within the scope of an examination of a patient positioned with a patient poisoning means , characterised in that the image recording device has a speech interaction system with at least one microphone recording a noise of the patient and at least one loudspeaker for the patient, wherein - noise coming from the patient is recorded by means of the microphone and is evaluated by a speech recognition unit of the speech interaction system in order to determine an item of patient information describing the state of the patient and/or the content of spoken words, - a speech output is carried out via the loudspeaker to the patient as a function of the patient information. - noise coming from the patient is recorded by means of the microphone and is evaluated by a speech recognition unit of the speech interaction system in order to determine an item of patient information describing the state of the patient and/or the content of spoken words, - a speech output is carried out via the loudspeaker to the patient as a function of the patient information.
A last (100A, 100A1 to 100A11, 100B, 100C) for forming a shoe upper, the last comprising: a plurality of last forming parts that are detachable, wherein the last forming parts include a first part and a second part , at least one of the first part and the second part defines a forming surface (S) for forming the shoe upper, the first part includes a first plate-shaped portion , the second part includes a second part-side receiving portion having a cutout shape, when the first plate-shaped portion is received in the second part-side receiving portion, the first part and the second part are assembled, the second part includes a second part-side engaging portion having a protruding shape on an inner side surface in a portion defining the second part-side receiving portion, the first plate-shaped portion has a main surface with a first part-side to-be-engaged portion having a through hole shape or a recessed shape, when the first plate-shaped portion is inserted into the second part-side receiving portion, the first plate-shaped portion is fitted into the second part-side receiving portion, and the first part-side to-be-engaged portion is engaged by the second part-side engaging portion . a plurality of last forming parts that are detachable, wherein the last forming parts include a first part and a second part , at least one of the first part and the second part defines a forming surface (S) for forming the shoe upper, the first part includes a first plate-shaped portion , the second part includes a second part-side receiving portion having a cutout shape, when the first plate-shaped portion is received in the second part-side receiving portion, the first part and the second part are assembled, the second part includes a second part-side engaging portion having a protruding shape on an inner side surface in a portion defining the second part-side receiving portion, the first plate-shaped portion has a main surface with a first part-side to-be-engaged portion having a through hole shape or a recessed shape, when the first plate-shaped portion is inserted into the second part-side receiving portion, the first plate-shaped portion is fitted into the second part-side receiving portion, and the first part-side to-be-engaged portion is engaged by the second part-side engaging portion .
A process for producing Co, Al alloyed NdFeB nanoparticles, by a microwave assisted combustion process, followed by a reduction diffusion process, the process comprising the steps of: preparing a first solution of boric acid dissolved in 4 N Nitric Acid (HNO 3 ); dissolving iron nitrate nonahydrate, neodymium nitrate nonahydrate, cobalt nitrate hexahydrate, aluminium nitrate, and the first solution in deionized water to form a second solution; adding glycine to the second solution in a molar ratio of 1:1 to form a third solution; subjecting the third solution to microwave radiation, thereby forming an first powder of NdFeCoAlB oxides; mixing the first powder with calcium hydride in a mass ratio of 1:1.1 (NdFeCoAlB oxides:CaH 2 ) to form a second powder, compacted into a powder block; annealing the second powder in a vacuum furnace; washing the annealed second powder with a solution of ethylenediaminetetraacetic acid; and vacuum drying the second powder. preparing a first solution of boric acid dissolved in 4 N Nitric Acid (HNO 3 ); dissolving iron nitrate nonahydrate, neodymium nitrate nonahydrate, cobalt nitrate hexahydrate, aluminium nitrate, and the first solution in deionized water to form a second solution; adding glycine to the second solution in a molar ratio of 1:1 to form a third solution; subjecting the third solution to microwave radiation, thereby forming an first powder of NdFeCoAlB oxides; mixing the first powder with calcium hydride in a mass ratio of 1:1.1 (NdFeCoAlB oxides:CaH 2 ) to form a second powder, compacted into a powder block; annealing the second powder in a vacuum furnace; washing the annealed second powder with a solution of ethylenediaminetetraacetic acid; and vacuum drying the second powder.