mhurhangee/patent-ind-claim-en huggingface dataset:
An assemblable storage box, which comprises a box body comprising a top surface with an opening, the box body comprises a bottom plate and four side plates comprising a front side plate , a rear side plate , a left side plate , and a right side plate , wherein: two adjacent side plates are detachably clamped together, bottom portions of the four side plates comprising the front side plate , the rear side plate , the left side plate , and the right side plate are disposed with support countertops , four sides of the bottom plate horizontally extend outward to define positioning edges respectively, the positioning edges of the four sides of the bottom plate respectively abut upper sides of the support countertops of the four side plates comprising the front side plate , the rear side plate , the left side plate , and the right plate , positioning fasteners are further provided, and the positioning fasteners are fastened to the support countertops to enable the positioning edges to be positioned, characterised in that it comprises a box cover configured to cover the opening of the box body , and in that the four edges of the bottom plate are all folded upward to define block edges , and upper edges of the block edges horizontally extend outward to define the positioning edges .
A method of generating interaction activity information in a device , the method comprising: establishing communication with at least one external apparatus by contacting the at least one external apparatus within a predetermined range; receiving , from the external apparatus , information about a function that is capable of being performed by the external apparatus ; generating interaction activity information, based upon the information, about a function that is capable of being used interactively between the at least one external apparatus and the device ; and displaying the interaction activity information, wherein the received information comprises metadata about a function that is capable of being performed by the at least one external apparatus , and a controlling signal regarding the function that is capable of being performed by the at least one external apparatus , and wherein the generating the interaction activity information comprises: selecting a function that is capable of being performed by the device from among functions that are capable of being performed by the at least one external apparatus , based on the metadata; and generating an interaction activity list of functions that are capable of being used interactively with the at least one external apparatus , based on the selected function, and the controlling signal corresponding to the selected function. establishing communication with at least one external apparatus by contacting the at least one external apparatus within a predetermined range; receiving , from the external apparatus , information about a function that is capable of being performed by the external apparatus ; generating interaction activity information, based upon the information, about a function that is capable of being used interactively between the at least one external apparatus and the device ; and displaying the interaction activity information, wherein the received information comprises metadata about a function that is capable of being performed by the at least one external apparatus , and a controlling signal regarding the function that is capable of being performed by the at least one external apparatus , and wherein the generating the interaction activity information comprises: selecting a function that is capable of being performed by the device from among functions that are capable of being performed by the at least one external apparatus , based on the metadata; and generating an interaction activity list of functions that are capable of being used interactively with the at least one external apparatus , based on the selected function, and the controlling signal corresponding to the selected function. selecting a function that is capable of being performed by the device from among functions that are capable of being performed by the at least one external apparatus , based on the metadata; and generating an interaction activity list of functions that are capable of being used interactively with the at least one external apparatus , based on the selected function, and the controlling signal corresponding to the selected function.
A component for a gas turbine engine , the component comprising: an airfoil (500; 800) having a leading edge, a trailing edge, a suction side, and a pressure side, wherein an airfoil cavity is formed within the airfoil, wherein the airfoil extends from an inner diameter to an outer diameter; and a baffle (126; 502; 602; 802, 804) installed within the airfoil cavity, the baffle comprising: a baffle body extending between a first end and a second end wherein the first end is located proximate the inner diameter and the second end is located proximate the outer diameter; a chamfered surface (534; 634; 834) formed at at least one corner of the baffle body, wherein the chamfered surface extends from the first end to the second end; a plurality of baffle holes formed in the chamfered surface; and a blocking extension (542; 642; 842) extending from the baffle body and located proximate the chamfered surface, characterized in that the blocking extension extends from the baffle body toward a sidewall of the airfoil but does not contact the sidewall and defines a blocking extension gap between the blocking extension and the sidewall. an airfoil (500; 800) having a leading edge, a trailing edge, a suction side, and a pressure side, wherein an airfoil cavity is formed within the airfoil, wherein the airfoil extends from an inner diameter to an outer diameter; and a baffle (126; 502; 602; 802, 804) installed within the airfoil cavity, the baffle comprising: a baffle body extending between a first end and a second end wherein the first end is located proximate the inner diameter and the second end is located proximate the outer diameter; a chamfered surface (534; 634; 834) formed at at least one corner of the baffle body, wherein the chamfered surface extends from the first end to the second end; a plurality of baffle holes formed in the chamfered surface; and a blocking extension (542; 642; 842) extending from the baffle body and located proximate the chamfered surface, characterized in that the blocking extension extends from the baffle body toward a sidewall of the airfoil but does not contact the sidewall and defines a blocking extension gap between the blocking extension and the sidewall. a baffle body extending between a first end and a second end wherein the first end is located proximate the inner diameter and the second end is located proximate the outer diameter; a chamfered surface (534; 634; 834) formed at at least one corner of the baffle body, wherein the chamfered surface extends from the first end to the second end; a plurality of baffle holes formed in the chamfered surface; and a blocking extension (542; 642; 842) extending from the baffle body and located proximate the chamfered surface, characterized in that the blocking extension extends from the baffle body toward a sidewall of the airfoil but does not contact the sidewall and defines a blocking extension gap between the blocking extension and the sidewall.
A device for locating a target (T) intended to be embedded on a mobile carrier (A), the device comprising: • a camera orientable relative to the carrier (A) in: o a first orientation in sight of the target so that the camera acquires an image of the target (T), and o a second orientation in sight of at least one predetermined star so that the camera acquires at least one image of the star, • an inertial unit configured to calculate position and orientation data of the camera , • a stellar resetting module configured to apply a stellar resetting to the data calculated by the inertial unit based on the image of the star, so as to produce reset position and orientation data, • a location module configured to estimate a position of the target (T) from the image of the target (T) and the reset data, the device being characterized in that it comprises a communication interface with an operator station, and in that the camera is further configured to switch from one of the first and second orientations to the other in response to the receipt by the communication interface of a command emitted by the operator station. • a camera orientable relative to the carrier (A) in: o a first orientation in sight of the target so that the camera acquires an image of the target (T), and o a second orientation in sight of at least one predetermined star so that the camera acquires at least one image of the star, o a first orientation in sight of the target so that the camera acquires an image of the target (T), and o a second orientation in sight of at least one predetermined star so that the camera acquires at least one image of the star, • an inertial unit configured to calculate position and orientation data of the camera , • a stellar resetting module configured to apply a stellar resetting to the data calculated by the inertial unit based on the image of the star, so as to produce reset position and orientation data, • a location module configured to estimate a position of the target (T) from the image of the target (T) and the reset data,
Method for producing a three-dimensional target structure in a lithographic material by means of a laser lithography device , wherein the target structure is defined in that, within a writing region of the laser lithography device , a focus region of a laser writing beam passes through a scan manifold , which is a scan curve, through the lithographic material , wherein an exposure dose is radiated into the lithographic material in the focus region of the laser writing beam and a structure region is defined locally using multi-photon absorption, the method comprising: a) providing at least one exposure data set which represents a local exposure dose for the scan manifold depending on the location; b) defining a structure approximating the target structure on the basis of the at least one exposure data set; c) analyzing the already defined structure by means of a spatially resolving imaging measurement method and determining at least one analysis data set which represents the analyzed structure ; d) determining a deviation data set which represents deviations of the already defined structure from the target structure ; e) determining at least one correction exposure data set which represents a correction exposure dose required to compensate for the deviations for the scan manifold depending on the location; f) defining a correction structure on the basis of the at least one correction exposure data set. a) providing at least one exposure data set which represents a local exposure dose for the scan manifold depending on the location; b) defining a structure approximating the target structure on the basis of the at least one exposure data set; c) analyzing the already defined structure by means of a spatially resolving imaging measurement method and determining at least one analysis data set which represents the analyzed structure ; d) determining a deviation data set which represents deviations of the already defined structure from the target structure ; e) determining at least one correction exposure data set which represents a correction exposure dose required to compensate for the deviations for the scan manifold depending on the location; f) defining a correction structure on the basis of the at least one correction exposure data set.
Method for producing a wall-flow filter for reducing the pollutants in the exhaust gas of an internal combustion engine, wherein a dry powder/gas aerosol having at least one refractory compound is applied to the input surface of a dry filter in a targeted manner in such a way that the powder precipitates in the pores of the filter walls, characterized in that the powder is dispersed in the gas, then is passed into a gas stream, and is sucked into the inlet side of the filter without further supply of a gas, and the powder coating has an increasing concentration gradient over the length of the filter from the inlet side to the outlet side, wherein the gradient of the powder concentration in the filter increases from negative to positive values in the axial direction from the inlet side to the outlet side, with the result that, when the filter is divided along its longitudinal axis into three successive regions of equal length, more powder is deposited on the inlet side on the filter than in the middle of the filter and on the outlet side more than on the inlet side, and no complete or continuous powder layer arises on the filter wall, and the powder/gas aerosol is sucked through the filter at a speed of 10 m/s to 50 m/s.
A method for wireless communication performed by a wireless node , wherein the wireless node comprises a wireless node of a first type, the method comprising: determining an interlace structure of tones , within an unlicensed radio frequency, RF, spectrum, available to the wireless node for communication, wherein a first interlace structure is used for communication by devices of the first type and a second interlace structure is used for communication by devices of a second type, wherein the first type is a narrowband internet of things, NB-IoT, device, a machine type communications, MTC, device, or an enhanced MTC, eMTC, device and the second type is a different type of LTE device; and communicating based on the first interlace structure, wherein the communicating involves hopping between tones within the first interlace structure during different communication intervals. determining an interlace structure of tones , within an unlicensed radio frequency, RF, spectrum, available to the wireless node for communication, wherein a first interlace structure is used for communication by devices of the first type and a second interlace structure is used for communication by devices of a second type, wherein the first type is a narrowband internet of things, NB-IoT, device, a machine type communications, MTC, device, or an enhanced MTC, eMTC, device and the second type is a different type of LTE device; and communicating based on the first interlace structure, wherein the communicating involves hopping between tones within the first interlace structure during different communication intervals.
A light fixture including a lens and a lighting element , the light fixture comprising: a controller configured to control said lighting element ; a filter apparatus, comprising: a light filter movable into an optical path (OP) between the lighting element and the lens , in use, under control of the controller during execution of a light program, said light filter being a diffusion filter configured to diffuse a light beam passing through said light diffusion filter ; and the filter apparatus configured to automatically move said light diffusion filter from a position outside the optical path (OP) to a position within the optical path (OP) upon power down of the light fixture . a controller configured to control said lighting element ; a filter apparatus, comprising: a light filter movable into an optical path (OP) between the lighting element and the lens , in use, under control of the controller during execution of a light program, said light filter being a diffusion filter configured to diffuse a light beam passing through said light diffusion filter ; and the filter apparatus configured to automatically move said light diffusion filter from a position outside the optical path (OP) to a position within the optical path (OP) upon power down of the light fixture . a light filter movable into an optical path (OP) between the lighting element and the lens , in use, under control of the controller during execution of a light program, said light filter being a diffusion filter configured to diffuse a light beam passing through said light diffusion filter ; and the filter apparatus configured to automatically move said light diffusion filter from a position outside the optical path (OP) to a position within the optical path (OP) upon power down of the light fixture .
Aircraft having at least one flight control surface actuator and having at least one electronic device for controlling the flight control surface actuator, wherein the electronic device has at least one interface by means of which signals for controlling the flight control surface actuator are provided, wherein the electronic device has a combination of at least one microcontroller and at least one Field Programmable Gate Array (FPGA) Core that communicate with one another via a communication link , the FPGA Core serving as I/O handler or data concentrator and being configurable such that different signals from sensors or other signal sources can be processed in dependence on the configuration of the FPGA Core , characterized in that the device comprises means for a configurable signal association by means of which the signals for controlling the flight control surface actuator can be supplied to the FPGA Core and to the microcontroller , and wherein the microcontroller is configured to carry out an independent inspection of or even a comparison with the signals supplied to the FPGA Core .
A method for treating a surface coating of a bulk metal part , comprising the steps consisting in: • placing, in a microwave cavity , at least one said metal part including said surface coating capable of absorbing microwaves at the frequency v 0 , surrounded by one or more first susceptors the dimensions, the material and the arrangement of which are configured to screen said microwaves at the frequency v 0 , in the vicinity of each said metal part ; • emitting said microwaves at the frequency v 0 into said microwave cavity; wherein the method for treating the coating is a calcination process or wherein the method for treating the coating is a crosslinking process. • placing, in a microwave cavity , at least one said metal part including said surface coating capable of absorbing microwaves at the frequency v 0 , surrounded by one or more first susceptors the dimensions, the material and the arrangement of which are configured to screen said microwaves at the frequency v 0 , in the vicinity of each said metal part ; • emitting said microwaves at the frequency v 0 into said microwave cavity; wherein the method for treating the coating is a calcination process or wherein the method for treating the coating is a crosslinking process.
An ultrasonic sealing device, comprising: a horn having a sealing surface; an anvil having a sealing surface, at least one of said horn and said anvil being moveable to engage the sealing surface of said horn with the sealing surface of said anvil ; wherein the sealing surfaces of each of said horn and said anvil including a plurality of protrusions and a recess between each of the protrusions , characterized in that each of the protrusions having a flat distal surface and sloped sidewalls with curved edges therebetween and each of the recesses including a flat recess surface with curved edges; and in that , upon engagement of the sealing surface of said horn with the sealing surface of said anvil , the flat distal surfaces of each of the protrusions on each of the sealing surfaces engage corresponding ones of the flat recess surfaces of each of the recesses on each of the sealing surfaces and define gaps between the sloped sidewalls of each adjacent protrusion. a horn having a sealing surface; an anvil having a sealing surface, at least one of said horn and said anvil being moveable to engage the sealing surface of said horn with the sealing surface of said anvil ; wherein the sealing surfaces of each of said horn and said anvil including a plurality of protrusions and a recess between each of the protrusions , characterized in that each of the protrusions having a flat distal surface and sloped sidewalls with curved edges therebetween and each of the recesses including a flat recess surface with curved edges; and in that , upon engagement of the sealing surface of said horn with the sealing surface of said anvil , the flat distal surfaces of each of the protrusions on each of the sealing surfaces engage corresponding ones of the flat recess surfaces of each of the recesses on each of the sealing surfaces and define gaps between the sloped sidewalls of each adjacent protrusion.
A method for inspecting semiconductor components comprising and characterised by : (a) generating two or more golden templates by a golden template layer generation system , whereby golden templates are images that are benchmarks, each golden template generated from (i) different regions of a semiconductor wafer to form region golden templates for each of said different regions, or from (ii) combinations of the region golden templates to form group golden templates , or from (iii) any combinations of (i) and (ii) to form master golden templates ; (b) selecting a die image under inspection from a set of image data generated by an image data system ; (c) comparing the die image to a master golden template using a golden template layer inspection system ; (d) determining whether the die image fails the comparison to the master golden template; (e) comparing the die image to a group golden template if the die image fails the comparison to the master golden template; (f) comparing the die image to a region golden template if the die image fails the comparison to the group golden template; and (g) repeating (f) with another region golden template if the die image fails the comparison to the region golden template, wherein each golden template is selected based on identification of one or more features that are identified using different types of illumination and which correspond to the features of the die image under inspection. (a) generating two or more golden templates by a golden template layer generation system , whereby golden templates are images that are benchmarks, each golden template generated from (i) different regions of a semiconductor wafer to form region golden templates for each of said different regions, or from (ii) combinations of the region golden templates to form group golden templates , or from (iii) any combinations of (i) and (ii) to form master golden templates ; (b) selecting a die image under inspection from a set of image data generated by an image data system ; (c) comparing the die image to a master golden template using a golden template layer inspection system ; (d) determining whether the die image fails the comparison to the master golden template; (e) comparing the die image to a group golden template if the die image fails the comparison to the master golden template; (f) comparing the die image to a region golden template if the die image fails the comparison to the group golden template; and (g) repeating (f) with another region golden template if the die image fails the comparison to the region golden template, wherein each golden template is selected based on identification of one or more features that are identified using different types of illumination and which correspond to the features of the die image under inspection.