mhurhangee/ep-ind-claims huggingface dataset:
A high strength hot rolled steel plate for line-pipes containing by mass%, C: 0.01 to 0.1%, Si: 0.05 to 0.5%, Mn: 1 to 2%, P: ≤ 0.03%, S: ≤ 0.005%, O: ≤ 0.003%, Al: 0.005 to 0.05%, N: 0.0015 to 0.006%, Nb: 0.005 to 0.08%, and Ti: 0.005 to 0.02%, where N-14/48xTi > 0% and Nb-93/14x(N-14/48xTi) > 0.005%, optionally one or more of V: 0.01 to 0.3%, Mo: 0.01 to 0.3%, Cr: 0.01 to 0.3%, Cu: 0.01 to 0.3%, Ni: 0.01 to 0.3%, B: 0.0002 to 0.003%, Ca: 0.0005 to 0.005%, and REM: 0.0005 to 0.02 % and a balance of Fe and unavoidable impurities, wherein its microstructure is a continuously cooled transformed structure (Zw), the continuously cooled transformed structure (Zw) being is a microstructure defined as a transformed structure in the intermediate stage of martensite formed by a shear mechanism without diffusion with a microstructure including polygonal ferrite or pearlite formed by a diffusion mechanism, a reflected X-ray intensity ratio / of the plane and plane parallel to the plate surface in the texture at the center of plate thickness is 1.1 or more, an in-grain precipitate density of the precipitates of Nb and/or Ti carbonitrides is 10 17 to 10 18 /cm 3 and a thickness of the steel plate is 14mm or more. C: 0.01 to 0.1%, Si: 0.05 to 0.5%, Mn: 1 to 2%, P: ≤ 0.03%, S: ≤ 0.005%, O: ≤ 0.003%, Al: 0.005 to 0.05%, N: 0.0015 to 0.006%, Nb: 0.005 to 0.08%, and Ti: 0.005 to 0.02%, where V: 0.01 to 0.3%, Mo: 0.01 to 0.3%, Cr: 0.01 to 0.3%, Cu: 0.01 to 0.3%, Ni: 0.01 to 0.3%, B: 0.0002 to 0.003%, Ca: 0.0005 to 0.005%, and REM: 0.0005 to 0.02 % and
A method for gesture detection, comprising: using a first sensor (308, 408) to detect a gesture based on a first image processing technique; using a second sensor to detect the gesture based on an acoustic detection technique wherein the second sensor has a lower resolution than the first sensor and wherein the first sensor has a first power consumption level when operating in an active mode and the second sensor has a second power consumption level that is less than the first power consumption level; and activating the second sensor of an apparatus that is deactivated when a first sensor of the apparatus is in an active mode upon detection of the first sensor transitioning from the active mode to a dormant mode wherein the second sensor is deactivated when the first sensor is in the active mode. using a first sensor (308, 408) to detect a gesture based on a first image processing technique; using a second sensor to detect the gesture based on an acoustic detection technique wherein the second sensor has a lower resolution than the first sensor and wherein the first sensor has a first power consumption level when operating in an active mode and the second sensor has a second power consumption level that is less than the first power consumption level; and activating the second sensor of an apparatus that is deactivated when a first sensor of the apparatus is in an active mode upon detection of the first sensor transitioning from the active mode to a dormant mode wherein the second sensor is deactivated when the first sensor is in the active mode.
An image processing device comprising: an imaging unit that images an outside; an image acquisition unit that acquires an image captured by the imaging unit; a pixel detection unit that detects pixels at or above a first threshold value and pixels at or above a second threshold value in the image acquired by the image acquisition unit, the first threshold value indicating a degree of redness, the second threshold value being smaller than the first threshold value; a light point detection unit that detects a light point from the pixels at or above the two threshold values, the pixels having been detected by the pixel detection unit; and a taillight determination unit that determines whether the light point is a taillight of a vehicle based on the pixels at or above the first threshold value and the pixels at or above the second threshold value that have been detected, characterized in that the first threshold and the second threshold are values of an R/G ratio. an imaging unit that images an outside; an image acquisition unit that acquires an image captured by the imaging unit; a pixel detection unit that detects pixels at or above a first threshold value and pixels at or above a second threshold value in the image acquired by the image acquisition unit, the first threshold value indicating a degree of redness, the second threshold value being smaller than the first threshold value; a light point detection unit that detects a light point from the pixels at or above the two threshold values, the pixels having been detected by the pixel detection unit; and a taillight determination unit that determines whether the light point is a taillight of a vehicle based on the pixels at or above the first threshold value and the pixels at or above the second threshold value that have been detected, characterized in that the first threshold and the second threshold are values of an R/G ratio.
A bonding method in which members to be bonded are bonded together by carrying out heating and firing in a state where metal nanoparticles are held at a predetermined position between the members to be bonded, wherein a bonding material that includes metal nanoparticles, which are coated with an organic protective film, and a binder is applied to a bonding surface of each of the members to be bonded, the members to be bonded are overlaid and aligned together, the members to be bonded are pressurized together by an applied pressure that is low while the bonding material is heated so as to attain a bonding temperature thereof or higher, a change in a predetermined physical quantity that occurs in any of the members to be bonded, the bonding material, and an ambient atmosphere thereof, or an elapsed time from the initiation of the heating is measured, and at the time point when the change in the physical quantity has reached a certain amount or after the elapse of a certain time, the applied pressure is increased to a high pressure.
A method for touch input comprising: displaying a target (401, 601) on a screen of a touch screen device; and rendering a callout (206, 406, 906) on the screen in response to an attempt to select the target, wherein the callout comprises a representation of an occluded area (204, 904) of the screen in a non-occluded area of the screen, wherein the attempt to select the target comprises contacting the occluded area of the screen with a selection entity to attempt to select the target displayed on the screen under the selection entity; and the method further comprising: determining if occlusion is a problem for the target under the selection entity, wherein the callout is rendered if occlusion is a problem for the target under the selection entity, and wherein the callout is not rendered if occlusion is not a problem for the target under the selection entity, characterized in that determining if occlusion is a problem for the target under the selection entity comprises: determining that occlusion is a problem for the target under the selection entity if the target is covered by the selection entity for more than a dwell timeout period, wherein the target is one of a plurality of small targets covered by the selection entity. displaying a target (401, 601) on a screen of a touch screen device; and rendering a callout (206, 406, 906) on the screen in response to an attempt to select the target, wherein the callout comprises a representation of an occluded area (204, 904) of the screen in a non-occluded area of the screen, wherein the attempt to select the target comprises contacting the occluded area of the screen with a selection entity to attempt to select the target displayed on the screen under the selection entity; and the method further comprising: determining if occlusion is a problem for the target under the selection entity, wherein the callout is rendered if occlusion is a problem for the target under the selection entity, and wherein the callout is not rendered if occlusion is not a problem for the target under the selection entity, characterized in that determining if occlusion is a problem for the target under the selection entity comprises: determining that occlusion is a problem for the target under the selection entity if the target is covered by the selection entity for more than a dwell timeout period, wherein the target is one of a plurality of small targets covered by the selection entity. determining if occlusion is a problem for the target under the selection entity, wherein the callout is rendered if occlusion is a problem for the target under the selection entity, and wherein the callout is not rendered if occlusion is not a problem for the target under the selection entity, characterized in that determining if occlusion is a problem for the target under the selection entity comprises: determining that occlusion is a problem for the target under the selection entity if the target is covered by the selection entity for more than a dwell timeout period, wherein the target is one of a plurality of small targets covered by the selection entity.
A method of processing a broadcast signal in a transmitter, the method comprising: performing Forward Error Correction, FEC, encoding on Physical Layer Pipe, PLP, data; de-multiplexing bits of the FEC encoded PLP data into cells of the PLP data; building a frame including the cells of the PLP data; inserting a preamble symbol and an additional preamble symbol into the built frame, wherein the additional preamble symbol is generated by steps including: scrambling data in an additional main part; and building a structure of the additional preamble symbol, wherein the preamble symbol includes a main part, a prefix and a postfix, wherein the additional preamble symbol includes the additional main part, an additional prefix and an additional postfix, wherein the additional prefix carries a frequency shifted version of a part of the additional main part while the additional postfix conveys a frequency shifted version of the other part of the additional main part, wherein length difference between the prefix and postfix is different from length difference between the additional prefix and the additional postfix, characterised in that the data in the additional preamble symbol are scrambled by using a first sequence which is different from a second sequence used in the preamble symbol. performing Forward Error Correction, FEC, encoding on Physical Layer Pipe, PLP, data; de-multiplexing bits of the FEC encoded PLP data into cells of the PLP data; building a frame including the cells of the PLP data; inserting a preamble symbol and an additional preamble symbol into the built frame, wherein the additional preamble symbol is generated by steps including: scrambling data in an additional main part; and building a structure of the additional preamble symbol, scrambling data in an additional main part; and building a structure of the additional preamble symbol, wherein the preamble symbol includes a main part, a prefix and a postfix, wherein the additional preamble symbol includes the additional main part, an additional prefix and an additional postfix, wherein the additional prefix carries a frequency shifted version of a part of the additional main part while the additional postfix conveys a frequency shifted version of the other part of the additional main part, wherein length difference between the prefix and postfix is different from length difference between the additional prefix and the additional postfix, characterised in that the data in the additional preamble symbol are scrambled by using a first sequence which is different from a second sequence used in the preamble symbol.
A method for removing sulfur substances from an aqueous medium, comprising: (a) combining solid material comprising 2-amino-2-deoxy-d-glucopyranose structural units and an aqueous medium comprising sulfur substances to form a composition; (b) controlling, and if necessary adjusting, and keeping the pH of the composition at a value lower than or equal to 3.5 with a non-chloride substance, during binding of sulfur substances to the solid material; and (c) separating the solid material from the aqueous medium to remove the sulfur substances; wherein the non-chloride substance is nitric acid, phosphoric acid, citric acid, oxalic acid, malic acid, tartaric acid, EDTA, a bisphosphonate or a cation exchanger, or any combination thereof. (a) combining solid material comprising 2-amino-2-deoxy-d-glucopyranose structural units and an aqueous medium comprising sulfur substances to form a composition; (b) controlling, and if necessary adjusting, and keeping the pH of the composition at a value lower than or equal to 3.5 with a non-chloride substance, during binding of sulfur substances to the solid material; and (c) separating the solid material from the aqueous medium to remove the sulfur substances;
A system for cooling air in a power generation system, the system comprising: an air handling unit configured to receive air, to cool the air, and to remove moisture from the air; a first compressor fluidly connected to the air handling unit and configured to receive the air from the air handling unit and to exhaust a first compressed, heated air flow; a vapor absorption chiller connected to the first compressor configured to transfer heat energy between a plurality of mediums and to cool the first compressed, heated air flow and enabling the air handling unit to cool the air prior to the air entering the first compressor; a second compressor connected to the vapor absorption chiller configured to receive the cooled first compressed, heated air flow and to exhaust a second compressed, heated air flow; an energy storage unit connected to the second compressor and configured to store heat energy from the second compressed, heated air flow; and a storage facility connected to the energy storage unit and configured to store a cooled, compressed air received from the energy storage unit and to selectively release the cooled, compressed air back into the power generation system, when the system for cooling air is installed in the power generation system. an air handling unit configured to receive air, to cool the air, and to remove moisture from the air; a first compressor fluidly connected to the air handling unit and configured to receive the air from the air handling unit and to exhaust a first compressed, heated air flow; a vapor absorption chiller connected to the first compressor configured to transfer heat energy between a plurality of mediums and to cool the first compressed, heated air flow and enabling the air handling unit to cool the air prior to the air entering the first compressor; a second compressor connected to the vapor absorption chiller configured to receive the cooled first compressed, heated air flow and to exhaust a second compressed, heated air flow; an energy storage unit connected to the second compressor and configured to store heat energy from the second compressed, heated air flow; and a storage facility connected to the energy storage unit and configured to store a cooled, compressed air received from the energy storage unit and to selectively release the cooled, compressed air back into the power generation system, when the system for cooling air is installed in the power generation system.
Method for setting up a wireless communication path between a first device for a commercial vehicle and a second device, the method comprising: - receiving a communication path request message from the second device at the first device, wherein the communication path request message is received at the first device via a wired communication path between the first device and the second device; - sending a communication path set-up message from the first device to the second device, wherein the communication path set-up message is sent via the wired communication path and wherein the communication path set-up message represents one or a plurality of information items to set up the wireless communication path between the first device and the second device. - receiving a communication path request message from the second device at the first device, wherein the communication path request message is received at the first device via a wired communication path between the first device and the second device; - sending a communication path set-up message from the first device to the second device, wherein the communication path set-up message is sent via the wired communication path and wherein the communication path set-up message represents one or a plurality of information items to set up the wireless communication path between the first device and the second device.
An upright vacuum cleaner comprising: a suction nozzle (20, 30, 80) comprising a plurality of wheels (221, 222, 331, 332), the plurality of wheels comprising a plurality of front wheels (331, 332) and a plurality of rear wheels (221, 222); a main body relatively rotatable with respect to the suction nozzle (221, 222, 331, 332); and a steering device (60, 70) steering the plurality of wheels (221, 222, 331, 332) to correspond to the movement of the main body, Characterized in that the steering device (60, 70) is configured to steer the plurality of front wheels (331, 332) or the plurality of rear wheels (221, 222), wherein the steering device (60, 70) comprises a first steering device for steering the plurality of rear wheels (331, 332) and a second steering device for steering the plurality of front wheels (221, 222). a suction nozzle (20, 30, 80) comprising a plurality of wheels (221, 222, 331, 332), the plurality of wheels comprising a plurality of front wheels (331, 332) and a plurality of rear wheels (221, 222); a main body relatively rotatable with respect to the suction nozzle (221, 222, 331, 332); and a steering device (60, 70) steering the plurality of wheels (221, 222, 331, 332) to correspond to the movement of the main body,
A method comprising: in a cryptologic hardware security system: determining, with processing circuitry, to rewrite original data in a selected block (B2, 106, 202) of a blockchain (100, 150) with altered data different than the original data previously stored in the selected block; identifying a specific block of the blockchain, the specific block comprising: a first integrity output (IC,..., IC(Bn-1)) and a second integrity output (IC,..., IC(Bn-1)); determining, with the processing circuitry and using a first key secret, collision data including the altered data, the collision data: coding-consistent with the first integrity output; and coding-inconsistent with the second integrity output, the first and second integrity outputs generated responsive to and coding-consistent with the original data; and performing, with the processing circuitry, a tamper-evident rewrite of the blockchain by replacing the original data with the collision data. determining, with processing circuitry, to rewrite original data in a selected block (B2, 106, 202) of a blockchain (100, 150) with altered data different than the original data previously stored in the selected block; identifying a specific block of the blockchain, the specific block comprising: a first integrity output (IC,..., IC(Bn-1)) and a second integrity output (IC,..., IC(Bn-1)); determining, with the processing circuitry and using a first key secret, collision data including the altered data, the collision data: coding-consistent with the first integrity output; and coding-inconsistent with the second integrity output, the first and second integrity outputs generated responsive to and coding-consistent with the original data; and coding-consistent with the first integrity output; and coding-inconsistent with the second integrity output, the first and second integrity outputs generated responsive to and coding-consistent with the original data; and performing, with the processing circuitry, a tamper-evident rewrite of the blockchain by replacing the original data with the collision data.
A beverage product comprising: water; acidulant comprising at least one acid; between 200 ppm and 700 ppm rebaudioside D; and rebaudioside A present in a sweetening amount. water; acidulant comprising at least one acid; between 200 ppm and 700 ppm rebaudioside D; and rebaudioside A present in a sweetening amount.
A sample holder for use in a device for image-based analysis of multiple samples, the sample holder comprising: an optically flat surface; multiple locations of interest dispersed across the optically flat surface that each, in use, correspond to volumes for containing a sample of the multiple samples; and multiple focal structures associated with the multiple locations of interest; wherein the focal structures each comprise at least one pyramid shaped indentation in the optically flat surface, wherein each pyramid shaped indentation comprises a vertex and angled sides with the angle of the angled sides set such that, in use, a majority of light incident from beneath the pyramid shaped indentation is reflected internally within the sample holder, such that when viewed from above the pyramid shaped indentation and focussed on the vertex, the majority of the pyramid shaped indentation appears dark and the vertex of the pyramid shaped indentation appears bright, and wherein the sample holder is layered with a first layer that includes the optically flat surface including the focal structures and provides a base for the volumes containing the samples, with the volumes being enclosed within a second layer on top of the first, optically flat, layer.
A method of operating a communication service of the type that comprises at least one base station (120A, 120B; 720) adapted for exchanging communications with multiple mobile devices (140A, 142A, 144A; 140B, 142B) within a region, the method comprising: during a first interval, exchanging communications with each of a first plurality of mobile devices within the region, the communications with the plurality of devices collectively using a first amount of bandwidth within a licensed spectrum assigned to the base station; in a second interval during which the region contains a second plurality of mobile devices, determining whether cumulative bandwidth consumption of the second plurality of mobile devices is above a threshold; and when it is determined that the cumulative bandwidth consumption of the second plurality of mobile devices is above the threshold, exchanging communications with a first portion of the second plurality of mobile devices using the licensed spectrum and exchanging communications with a second portion of the second plurality of mobile devices using an alternative frequency spectrum, the alternative frequency spectrum being different than the first licensed spectrum, characterized in that it further comprises: selecting the second portion of the second plurality of mobile devices based on responses from the second plurality of mobile devices indicating acceptance of the lower bandwidth. during a first interval, exchanging communications with each of a first plurality of mobile devices within the region, the communications with the plurality of devices collectively using a first amount of bandwidth within a licensed spectrum assigned to the base station; in a second interval during which the region contains a second plurality of mobile devices, determining whether cumulative bandwidth consumption of the second plurality of mobile devices is above a threshold; and when it is determined that the cumulative bandwidth consumption of the second plurality of mobile devices is above the threshold, exchanging communications with a first portion of the second plurality of mobile devices using the licensed spectrum and exchanging communications with a second portion of the second plurality of mobile devices using an alternative frequency spectrum, the alternative frequency spectrum being different than the first licensed spectrum, characterized in that it further comprises: selecting the second portion of the second plurality of mobile devices based on responses from the second plurality of mobile devices indicating acceptance of the lower bandwidth.