mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a display panel including a plurality of pixels (P); a wavelength conversion member provided under the display panel ; a light source to generate a light incident into the wavelength conversion member ; the wavelength conversion member comprising: a lower substrate ; an upper substrate ; a plurality of wavelength conversion parts between the lower substrate and upper substrate , and comprising a host ; and a plurality of wavelength conversion particles in the host ; wherein the wavelength conversion particles include quantum dots; wherein the wavelength conversion parts are spaced apart from each other, and wherein the wavelength conversion parts are aligned with the pixels (P), characterized in that the wavelength conversion member further comprises a first inorganic protective layer under the lower substrate ; and a second inorganic protective layer on the upper substrate , wherein the first and second inorganic protective layers include silicon oxide, and in that a width of each of the wavelength conversion parts is in the range of 65 μ m to 120 μ m or 200 μ m to 350 μ m. a display panel including a plurality of pixels (P); a wavelength conversion member provided under the display panel ; a light source to generate a light incident into the wavelength conversion member ; the wavelength conversion member comprising: a lower substrate ; an upper substrate ; a plurality of wavelength conversion parts between the lower substrate and upper substrate , and comprising a host ; and a plurality of wavelength conversion particles in the host ; wherein the wavelength conversion particles include quantum dots; wherein the wavelength conversion parts are spaced apart from each other, and wherein the wavelength conversion parts are aligned with the pixels (P), characterized in that the wavelength conversion member further comprises a first inorganic protective layer under the lower substrate ; and a second inorganic protective layer on the upper substrate , wherein the first and second inorganic protective layers include silicon oxide, and in that a width of each of the wavelength conversion parts is in the range of 65 μ m to 120 μ m or 200 μ m to 350 μ m. a lower substrate ; an upper substrate ; a plurality of wavelength conversion parts between the lower substrate and upper substrate , and comprising a host ; and a plurality of wavelength conversion particles in the host ; wherein the wavelength conversion particles include quantum dots; wherein the wavelength conversion parts are spaced apart from each other, and wherein the wavelength conversion parts are aligned with the pixels (P), characterized in that the wavelength conversion member further comprises a first inorganic protective layer under the lower substrate ; and a second inorganic protective layer on the upper substrate , wherein the first and second inorganic protective layers include silicon oxide, and in that a width of each of the wavelength conversion parts is in the range of 65 μ m to 120 μ m or 200 μ m to 350 μ m.
A process for the surface-treatment of a surface-reacted calcium carbonate comprising the following steps: (i) providing at least one surface-reacted calcium carbonate, wherein the surface-reacted calcium carbonate is a reaction product of natural ground or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors in an aqueous medium, wherein the carbon dioxide is formed in situ by the H 3 O + ion donor treatment and/or is supplied from an external source, (ii) providing at least one water soluble metal salt, wherein the water soluble metal salt is selected from the group consisting of a chromium salt, manganese salt, iron salt, cobalt salt, copper salt, zinc salt, silver salt and mixtures thereof, (iii) providing an aqueous solvent, (iv) contacting the at least one water soluble metal salt of step (ii) with the aqueous solvent of step (iii) to prepare a metal containing solution, (v) contacting the at least one surface-reacted calcium carbonate of step (i) with the metal containing solution of step (iv), in one or several steps, to obtain a mixture and (vi) heating the mixture obtained from step (v) to a temperature in the range from 50 to 180 °C to form a surface-treated surface-reacted calcium carbonate containing at least one water insoluble metal compound formed from the metal provided as metal salt in step (ii) on the surface of the surface-reacted calcium carbonate. (i) providing at least one surface-reacted calcium carbonate, wherein the surface-reacted calcium carbonate is a reaction product of natural ground or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors in an aqueous medium, wherein the carbon dioxide is formed in situ by the H 3 O + ion donor treatment and/or is supplied from an external source, (ii) providing at least one water soluble metal salt, wherein the water soluble metal salt is selected from the group consisting of a chromium salt, manganese salt, iron salt, cobalt salt, copper salt, zinc salt, silver salt and mixtures thereof, (iii) providing an aqueous solvent, (iv) contacting the at least one water soluble metal salt of step (ii) with the aqueous solvent of step (iii) to prepare a metal containing solution, (v) contacting the at least one surface-reacted calcium carbonate of step (i) with the metal containing solution of step (iv), in one or several steps, to obtain a mixture and (vi) heating the mixture obtained from step (v) to a temperature in the range from 50 to 180 °C to form a surface-treated surface-reacted calcium carbonate containing at least one water insoluble metal compound formed from the metal provided as metal salt in step (ii) on the surface of the surface-reacted calcium carbonate.
A battery gripper for gripping and displacing individual battery cells , with a flanged portion for arranging the battery gripper on a robot arm and with a suction unit having a suction side for gripping the battery cell , characterized in that a lifting device is provided with which, during operation of the battery gripper , the suction side can be displaced relative to the flanged portion from a gripping position in which the battery cell is gripped to a measuring position in which tests and/or measurements can be carried out on the gripped battery cell .
A dental implant , comprising: a base having exterior surfaces and a plug opening formed therein; a plug assembly inserted into the plug opening ; and at least one region of porous ingrowth material associated with at least one of the exterior surfaces of the base , characterized in that the dental implant, further comprises a perforated sleeve disposed between the base and the at least one region of porous ingrowth material and the perforated sleeve fits on the at least one exterior surface between two terminal end regions of the base to provide a uniform surface for associating the at least one region of porous ingrowth material with the at least one exterior surface. a base having exterior surfaces and a plug opening formed therein; a plug assembly inserted into the plug opening ; and at least one region of porous ingrowth material associated with at least one of the exterior surfaces of the base , characterized in that the dental implant, further comprises a perforated sleeve disposed between the base and the at least one region of porous ingrowth material and the perforated sleeve fits on the at least one exterior surface between two terminal end regions of the base to provide a uniform surface for associating the at least one region of porous ingrowth material with the at least one exterior surface.
A method of performing ultrasonic drilling to form a hole in a workpiece at a first location of the workpiece , the method comprising: positioning a surface of the workpiece with respect to a tool of an ultrasonic hone, wherein the tool has a longitudinal axis that is orthogonal or substantially orthogonal to the surface of the workpiece ; forming the hole in the workpiece by vibrating the tool along the longitudinal axis such that the tool repeatedly contacts the surface of the workpiece at an operating frequency and amplitude sufficient to form the hole in the workpiece , wherein the vibrating the tool is performed for a time sufficient to form the hole in the workpiece , wherein the tool is not rotated with respect to the surface of the workpiece during the forming the hole , wherein the forming the hole is performed without use of a slurry or a cooling fluid, and wherein the workpiece is composed of a composite material; and locally heating a portion of the workpiece , wherein the first location is within the portion of the workpiece during the forming the hole in the workpiece . positioning a surface of the workpiece with respect to a tool of an ultrasonic hone, wherein the tool has a longitudinal axis that is orthogonal or substantially orthogonal to the surface of the workpiece ; forming the hole in the workpiece by vibrating the tool along the longitudinal axis such that the tool repeatedly contacts the surface of the workpiece at an operating frequency and amplitude sufficient to form the hole in the workpiece , wherein the vibrating the tool is performed for a time sufficient to form the hole in the workpiece , wherein the tool is not rotated with respect to the surface of the workpiece during the forming the hole , wherein the forming the hole is performed without use of a slurry or a cooling fluid, and wherein the workpiece is composed of a composite material; and locally heating a portion of the workpiece , wherein the first location is within the portion of the workpiece during the forming the hole in the workpiece .
A delivery device for delivering a stented prosthetic heart valve including a valve structure carried by a stent frame configured to self-expand from a collapsed condition to a normal, expanded condition, the delivery device comprising: an inner shaft forming a lumen; a spindle associated with the inner shaft , wherein the spindle defines a first hole open to the lumen and an exterior of the spindle ; a first cord slidably disposed within the lumen for selectively compressing a stented prosthetic heart valve ; and a covering feature associated with the spindle for selectively covering at least a portion of a stented prosthetic heart valve tethered to the spindle in a delivery state; wherein the covering feature includes a tip mounted to the spindle . an inner shaft forming a lumen; a spindle associated with the inner shaft , wherein the spindle defines a first hole open to the lumen and an exterior of the spindle ; a first cord slidably disposed within the lumen for selectively compressing a stented prosthetic heart valve ; and a covering feature associated with the spindle for selectively covering at least a portion of a stented prosthetic heart valve tethered to the spindle in a delivery state; wherein the covering feature includes a tip mounted to the spindle .
A method for producing a maraging steel, comprising: a magnesium oxide formation step including adding magnesium into a molten steel in a primary vacuum melting process to form MgO in the molten steel; a consumable electrode production step including solidifying the molten steel after the magnesium oxide formation step to obtain a consumable electrode including MgO; and a vacuum arc remelting step including vacuum arc remelting with use of the consumable electrode, wherein the magnesium oxide formation step includes adding an oxide having a higher standard free energy of formation than MgO, wherein the oxide is an oxide of iron, nickel, manganese, silicon, chromium, molybdenum and/or cobalt, and wherein an amount of the oxide to be added is 0.01% to 1.0% of a weight of the molten steel; and wherein the maraging steel after the vacuum arc remelting comprises, by mass, not more than 0.1% of carbon; 0.01 to 1.7% of aluminum; 0.2 to 3.0% of titanium; 8 to 22% of nickel; 5 to 20% of cobalt; 2 to 9% of molybdenum; not more than 0.0030% of magnesium, and the balance being iron and impurities. a magnesium oxide formation step including adding magnesium into a molten steel in a primary vacuum melting process to form MgO in the molten steel; a consumable electrode production step including solidifying the molten steel after the magnesium oxide formation step to obtain a consumable electrode including MgO; and a vacuum arc remelting step including vacuum arc remelting with use of the consumable electrode, wherein the magnesium oxide formation step includes adding an oxide having a higher standard free energy of formation than MgO, wherein the oxide is an oxide of iron, nickel, manganese, silicon, chromium, molybdenum and/or cobalt, and wherein an amount of the oxide to be added is 0.01% to 1.0% of a weight of the molten steel; and wherein the maraging steel after the vacuum arc remelting comprises, by mass, not more than 0.1% of carbon; 0.01 to 1.7% of aluminum; 0.2 to 3.0% of titanium; 8 to 22% of nickel; 5 to 20% of cobalt; 2 to 9% of molybdenum; not more than 0.0030% of magnesium, and the balance being iron and impurities. not more than 0.1% of carbon; 0.01 to 1.7% of aluminum; 0.2 to 3.0% of titanium; 8 to 22% of nickel; 5 to 20% of cobalt; 2 to 9% of molybdenum; 0.01 to 1.7% of aluminum; 0.2 to 3.0% of titanium; 8 to 22% of nickel; 5 to 20% of cobalt; 2 to 9% of molybdenum; not more than 0.0030% of magnesium, and the balance being iron and impurities.
An attachment part fixing structure for a vehicle configured to position and fix a vehicle attachment part to a side wall of a columnar member of a vehicle , comprising: a stay made up from a single piece integrally including: - an annular member in which an insertion hole is formed and through which the columnar member is inserted, - fastened portions that project outwardly of the side wall from the annular member and face toward each other, and - a back surface support member that is joined to the fastened portions and supports a back surface of the vehicle attachment part ; and a tightening member configured to tighten and fasten the fastened portions to thereby attach the stay to the columnar member ; wherein the stay further includes a displacement regulating member configured to restrict displacement of the vehicle attachment part ; characterized in that the vehicle attachment part includes on the back surface thereof a columnar projection that projects toward the back surface support member , and the fastened portions grip the columnar projection therebetween. a stay made up from a single piece integrally including: - an annular member in which an insertion hole is formed and through which the columnar member is inserted, - fastened portions that project outwardly of the side wall from the annular member and face toward each other, and - a back surface support member that is joined to the fastened portions and supports a back surface of the vehicle attachment part ; and - an annular member in which an insertion hole is formed and through which the columnar member is inserted, - fastened portions that project outwardly of the side wall from the annular member and face toward each other, and - a back surface support member that is joined to the fastened portions and supports a back surface of the vehicle attachment part ; and a tightening member configured to tighten and fasten the fastened portions to thereby attach the stay to the columnar member ; wherein the stay further includes a displacement regulating member configured to restrict displacement of the vehicle attachment part ; characterized in that the vehicle attachment part includes on the back surface thereof a columnar projection that projects toward the back surface support member , and the fastened portions grip the columnar projection therebetween.
An internet protocol resource identification (IPRID) reputation assessment system , comprising: a memory ; a processor in operable communication with the memory, the processor and the memory configured in a trained convolutional neural network which was trained using IPRID reputation training data ; wherein the IPRID reputation training data includes rollup features based on hierarchical rollups of data about IPRIDs which include placeholders designating unknown values ; and wherein the IPRID reputation assessment system is configured to enhance security of a guarded system by the trained convolutional neural network inferring a label which distinguishes a malicious IPRID from other IPRIDs. a memory ; a processor in operable communication with the memory, the processor and the memory configured in a trained convolutional neural network which was trained using IPRID reputation training data ; wherein the IPRID reputation training data includes rollup features based on hierarchical rollups of data about IPRIDs which include placeholders designating unknown values ; and wherein the IPRID reputation assessment system is configured to enhance security of a guarded system by the trained convolutional neural network inferring a label which distinguishes a malicious IPRID from other IPRIDs.
A fluid nozzle, comprising: a sheath ; a nozzle base; a nozzle tip; a fluid tube configured to be contained within the sheath and supported at the nozzle base and the nozzle tip; and at least one spacer for said fluid nozzle, said spacer disposed within the sheath such the fluid tube is held bent over its longitudinal dimension thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, said spacer comprising: a body configured to fit within said sheath of the fluid nozzle such that said fluid tube positioned within the sheath is held bent over its longitudinal dimension by the body thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, and further comprising an off-center hole defined through the body at least in an orthogonal direction to a plane that is coplanar with the body, wherein the off-center hole is configured to receive the fluid tube within the sheath of the fluid nozzle to bend the fluid tube within the sheath. a sheath ; a nozzle base; a nozzle tip; a fluid tube configured to be contained within the sheath and supported at the nozzle base and the nozzle tip; and at least one spacer for said fluid nozzle, said spacer disposed within the sheath such the fluid tube is held bent over its longitudinal dimension thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, said spacer comprising: a body configured to fit within said sheath of the fluid nozzle such that said fluid tube positioned within the sheath is held bent over its longitudinal dimension by the body thereby altering a natural frequency of the fluid tube compared to if the fluid tube were not held bent, and further comprising an off-center hole defined through the body at least in an orthogonal direction to a plane that is coplanar with the body, wherein the off-center hole is configured to receive the fluid tube within the sheath of the fluid nozzle to bend the fluid tube within the sheath.
A bonding substrate fabrication method for fabricating a substrate, bonding substrate, on which a bonding surface is formed, the bonding substrate fabrication method comprising: a first surface treatment step of surface-treating a surface of a substrate by irradiation with radiated particles including energetic particles; and a second surface treatment step of surface-treating the substrate surface by irradiation with radiated particles including metal particles; wherein the bonding substrate is fabricated as a result of implementing the first surface treatment step and second surface treatment step; and characterised in that implementation of the first surface treatment step is performed before the second surface treatment step so that the metal particles are distributed in a base material of a surface layer of the bonding substrate with higher concentration than in the remaining of the bonding substrate. a first surface treatment step of surface-treating a surface of a substrate by irradiation with radiated particles including energetic particles; and a second surface treatment step of surface-treating the substrate surface by irradiation with radiated particles including metal particles; wherein the bonding substrate is fabricated as a result of implementing the first surface treatment step and second surface treatment step; and characterised in that implementation of the first surface treatment step is performed before the second surface treatment step so that the metal particles are distributed in a base material of a surface layer of the bonding substrate with higher concentration than in the remaining of the bonding substrate.
Trailer control module for a brake system of a motor vehicle with a trailer comprising a pneumatic brake system, configured to provide a preset brake control outlet pressure to said pneumatic brake system of the trailer, the trailer control module comprising: at least two electrical terminals , configured to receive two independent but redundant electrical control input signals, which comprise the signal for a preset brake control outlet pressure, at least one air pressure source inlet (A), configured to receive compressed air from an air pressure source , at least one valve, configured to adjust the constant air pressure from the air pressure source to the preset break outlet pressure, at least one brake supply pressure terminal (C), configured to provide the brake supply outlet pressure to the pneumatic brake system of the trailer, at least one brake control pressure terminal (D), configured to provide the preset brake control outlet pressure to the pneumatic brake system of the trailer, characterised in that the trailer control module comprises at least two control solenoid groups , each of which including at least one load valve and at least one exhaust valve and forming part of one control channel. at least two electrical terminals , configured to receive two independent but redundant electrical control input signals, which comprise the signal for a preset brake control outlet pressure, at least one air pressure source inlet (A), configured to receive compressed air from an air pressure source , at least one valve, configured to adjust the constant air pressure from the air pressure source to the preset break outlet pressure, at least one brake supply pressure terminal (C), configured to provide the brake supply outlet pressure to the pneumatic brake system of the trailer, at least one brake control pressure terminal (D), configured to provide the preset brake control outlet pressure to the pneumatic brake system of the trailer, characterised in that the trailer control module comprises at least two control solenoid groups , each of which including at least one load valve and at least one exhaust valve and forming part of one control channel.