mhurhangee/ep-ind-claims huggingface dataset:
A grouping method for grouping pieces of equipment that are capable of emitting sound signals and whose position is not necessarily known, together by sound spaces, the method including an operational stage comprising the steps of: · causing each piece of equipment to emit a test sound signal in succession; · causing the test sound signal to be received by each piece of equipment that is capable of receiving sound signals, and causing each of these pieces of equipment to evaluate a recognition level for said test sound signal; · for each pair of pieces of equipment Ei and Ej, evaluating a mutual recognition level representative both of a recognition level N(i, j) for the piece of equipment Ei receiving a test sound signal emitted by the piece of equipment Ej, and also of a recognition level N(j, i) for the piece of equipment Ej receiving a test sound signal emitted by the piece of equipment Ei; · on the basis of the mutual recognition level, determining whether or not the pieces of equipment Ei and Ej belong to a common sound space. · causing each piece of equipment to emit a test sound signal in succession; · causing the test sound signal to be received by each piece of equipment that is capable of receiving sound signals, and causing each of these pieces of equipment to evaluate a recognition level for said test sound signal; · for each pair of pieces of equipment Ei and Ej, evaluating a mutual recognition level representative both of a recognition level N(i, j) for the piece of equipment Ei receiving a test sound signal emitted by the piece of equipment Ej, and also of a recognition level N(j, i) for the piece of equipment Ej receiving a test sound signal emitted by the piece of equipment Ei; · on the basis of the mutual recognition level, determining whether or not the pieces of equipment Ei and Ej belong to a common sound space.
A method for mixing a raw material powder for powder metallurgy, comprising: obtaining a powder mixture by adding, to an iron powder, an alloying powder, a binding agent, and one or two or more members selected from lubricant powders, free-machining agent powders, and lubricant powders for sliding surface and performing first agitation mixing including performing gentle agitation while increasing the temperature to a temperature T K equal to or higher than the melting point T M of the binding agent, performing strong agitation while maintaining the temperature T K, and performing gentle agitation while reducing the temperature from the temperature T K, and performing a second agitation mixing in which the powder mixture obtained by the first agitation mixing in a first agitating mixer is agitated in a second agitating mixer while further cooling, wherein strong agitation is equivalent to a rotation number of 500 rpm or more of a 2L Henschel mixer with a blade diameter of 180 mm, and wherein gentle agitation is equivalent to a rotation number of less than 500 rpm of a 2L Henschel mixer with a blade diameter of 180 mm. obtaining a powder mixture by adding, to an iron powder, an alloying powder, a binding agent, and one or two or more members selected from lubricant powders, free-machining agent powders, and lubricant powders for sliding surface and performing first agitation mixing including performing gentle agitation while increasing the temperature to a temperature T K equal to or higher than the melting point T M of the binding agent, performing strong agitation while maintaining the temperature T K, and performing gentle agitation while reducing the temperature from the temperature T K, and performing a second agitation mixing in which the powder mixture obtained by the first agitation mixing in a first agitating mixer is agitated in a second agitating mixer while further cooling, wherein strong agitation is equivalent to a rotation number of 500 rpm or more of a 2L Henschel mixer with a blade diameter of 180 mm, and wherein gentle agitation is equivalent to a rotation number of less than 500 rpm of a 2L Henschel mixer with a blade diameter of 180 mm.
A battery rack capable of stacking a plurality of battery modules in multiple stages, the battery rack comprising: a base plate forming a bottom surface; a main frame combined to the base plate and extending in a height direction to form a wall structure for supporting both side portions of the plurality of battery modules; and a top plate combined to an uppermost portion of the main frame to form a ceiling, wherein the main frame comprises a pair of a first main frame and a second main frame, which are spaced apart from each other by a width of the plurality of battery modules, and each of the first main frame and the second main frame comprises: a pair of vertical beams spaced apart from each other in a length direction on the base plate and each extending in a height direction; and a plurality of guide beams combined to the pair of vertical beams at regular intervals along the height direction and provided to support a bottom corner region of the plurality of battery modules, characterized in that at least one of the top plate and the base plate is provided in a plate body shape including a bead. a base plate forming a bottom surface; a main frame combined to the base plate and extending in a height direction to form a wall structure for supporting both side portions of the plurality of battery modules; and a top plate combined to an uppermost portion of the main frame to form a ceiling, wherein the main frame comprises a pair of a first main frame and a second main frame, which are spaced apart from each other by a width of the plurality of battery modules, and each of the first main frame and the second main frame comprises: a pair of vertical beams spaced apart from each other in a length direction on the base plate and each extending in a height direction; and a plurality of guide beams combined to the pair of vertical beams at regular intervals along the height direction and provided to support a bottom corner region of the plurality of battery modules, characterized in that at least one of the top plate and the base plate is provided in a plate body shape including a bead. a pair of vertical beams spaced apart from each other in a length direction on the base plate and each extending in a height direction; and a plurality of guide beams combined to the pair of vertical beams at regular intervals along the height direction and provided to support a bottom corner region of the plurality of battery modules, characterized in that at least one of the top plate and the base plate is provided in a plate body shape including a bead.
A method of performing acoustic echo cancellation at a mobile device (100, 800), the method comprising: detecting a degradation in a quality of acoustic echo cancellation being performed by an acoustic echo canceller (190, 818) upon audio input received at a microphone (112, 113, 810) of the mobile device; determining that the degradation in the quality of the acoustic echo cancellation coincides in time with a non-acoustic physical event detected using an auxiliary sensor (109, 814) at the mobile device; based on the determining, causing the acoustic echo canceller to reconverge. detecting a degradation in a quality of acoustic echo cancellation being performed by an acoustic echo canceller (190, 818) upon audio input received at a microphone (112, 113, 810) of the mobile device; determining that the degradation in the quality of the acoustic echo cancellation coincides in time with a non-acoustic physical event detected using an auxiliary sensor (109, 814) at the mobile device; based on the determining, causing the acoustic echo canceller to reconverge.
A deformation monitoring method for measuring at least the bending strain of an electric cable, the method comprising the steps of: - providing an electric cable with at least one peripheral mechanically non-symmetric strength member (15, 67) having higher resistance to tensile loads than to compressive loads, at least two longitudinal structural elements (2; 43,44; 53; 61,62,63), and an optical fiber sensor located in the geometrical axis region of the cable and comprising an optical fiber, wherein the sensor is embedded in a strain-transferring filler (6; 25; 47;51; 66) mechanically coupling the sensor with at least one of the at least two longitudinal structural elements of the cable, - detecting compressive strain in the optical fiber sensor. - providing an electric cable with at least one peripheral mechanically non-symmetric strength member (15, 67) having higher resistance to tensile loads than to compressive loads, at least two longitudinal structural elements (2; 43,44; 53; 61,62,63), and an optical fiber sensor located in the geometrical axis region of the cable and comprising an optical fiber, wherein the sensor is embedded in a strain-transferring filler (6; 25; 47;51; 66) mechanically coupling the sensor with at least one of the at least two longitudinal structural elements of the cable, - detecting compressive strain in the optical fiber sensor.
Process for preparing temozolomide, comprising the following steps: (a) Reacting AICA base (5-amino-1H-imidazole-4-carboxamide) with N-methyl carbamoylimidazole to provide carbamoyl-AICA (5-amino-N1-methyl-1H-imidazole-1,4-dicarboxamide); (b) Reacting carbamoyl-AICA with an alkali or alkaline earth metal nitrite in the presence of an acid to provide temozolomide. (a) Reacting AICA base (5-amino-1H-imidazole-4-carboxamide) with N-methyl carbamoylimidazole to provide carbamoyl-AICA (5-amino-N1-methyl-1H-imidazole-1,4-dicarboxamide); (b) Reacting carbamoyl-AICA with an alkali or alkaline earth metal nitrite in the presence of an acid to provide temozolomide.
A method of making a patterned abrasive layer on a resin coated backing comprising the steps of: providing a production tool having a dispensing surface with cavities, each cavity having a cavity longitudinal axis perpendicular to the dispensing surface and a depth, D, along the cavity longitudinal axis; selecting elongated abrasive particles having a length, L, along a longitudinal particle axis greater than a width, W, along a transverse axis perpendicular to the longitudinal particle axis, wherein the depth, D, of the cavities is between 0.5L to 2L; supplying an excess of the elongated abrasive particles to the dispensing surface such that more elongated abrasive particles are provided than the number of cavities; filling a majority of the cavities in the dispensing surface with an elongated abrasive particle disposed in an individual cavity such that the longitudinal particle axis is parallel to the longitudinal cavity; removing a remaining fraction of the excess elongated abrasive particles not disposed within a cavity after the filling step from the dispensing surface; aligning the resin coated backing with the dispensing surface with the resin layer facing the dispensing surface; transferring the elongated abrasive particles in the cavities to the resin coated backing and attaching the elongated abrasive particles to the resin layer; and removing the production tool to expose the patterned abrasive layer on the resin coated backing. providing a production tool having a dispensing surface with cavities, each cavity having a cavity longitudinal axis perpendicular to the dispensing surface and a depth, D, along the cavity longitudinal axis; selecting elongated abrasive particles having a length, L, along a longitudinal particle axis greater than a width, W, along a transverse axis perpendicular to the longitudinal particle axis, wherein the depth, D, of the cavities is between 0.5L to 2L; supplying an excess of the elongated abrasive particles to the dispensing surface such that more elongated abrasive particles are provided than the number of cavities; filling a majority of the cavities in the dispensing surface with an elongated abrasive particle disposed in an individual cavity such that the longitudinal particle axis is parallel to the longitudinal cavity; removing a remaining fraction of the excess elongated abrasive particles not disposed within a cavity after the filling step from the dispensing surface; aligning the resin coated backing with the dispensing surface with the resin layer facing the dispensing surface; transferring the elongated abrasive particles in the cavities to the resin coated backing and attaching the elongated abrasive particles to the resin layer; and removing the production tool to expose the patterned abrasive layer on the resin coated backing.
A cable splice enclosure for inserting a cable (5, 502) therein, characterized by comprising: a first portion; and a second portion connected to the first portion and forming a water-tight seal with the first portion for fixing the cable, wherein the second portion is formed with one of an elasticity shrinkable tube-shrinkable waterproof mechanism and a combination of a mechanical waterproof mechanism and an elasticity shrinkable tube-shrinkable waterproof mechanism, wherein a second elasticity shrinkable tube covers the second portion and a part of the cable in the second elasticity shrinkable tube. a first portion; and a second portion connected to the first portion and forming a water-tight seal with the first portion for fixing the cable, wherein the second portion is formed with one of an elasticity shrinkable tube-shrinkable waterproof mechanism and a combination of a mechanical waterproof mechanism and an elasticity shrinkable tube-shrinkable waterproof mechanism, wherein a second elasticity shrinkable tube covers the second portion and a part of the cable in the second elasticity shrinkable tube.
Lithium iron phosphate having an olivine crystal structure wherein carbon is coated on particle surfaces of the lithium iron phosphate, wherein, when a powder of the lithium iron phosphate is dispersed in water, water is removed from the resulting dispersion and the resulting lithium iron phosphate residue is quantitatively analyzed, a ratio of the carbon-released lithium iron phosphate with respect to the total weight of the carbon-coated lithium iron phosphate is 0.005% by weight or less, wherein the lithium iron phosphate contains 0.05 to 5% by weight of sulfur, based on the total weight of the lithium iron phosphate.
A method for a device to create virtual graffiti, the method comprising the steps of: the device being placed near a first point; the device determining a location of the first point; the device being placed near a second point; the device determining a location of the second point; the device determining a polygonal boundary, within which the virtual graffiti is to be displayed, by using at least the location of the first point and the location of the second point as vertices of a polygon that defines the polygonal boundary for the virtual graffiti; the device receiving an image to be used as virtual graffiti; and the device creating the virtual graffiti by fitting the image within the polygonal boundary of the virtual graffiti. the device being placed near a first point; the device determining a location of the first point; the device being placed near a second point; the device determining a location of the second point; the device determining a polygonal boundary, within which the virtual graffiti is to be displayed, by using at least the location of the first point and the location of the second point as vertices of a polygon that defines the polygonal boundary for the virtual graffiti; the device receiving an image to be used as virtual graffiti; and the device creating the virtual graffiti by fitting the image within the polygonal boundary of the virtual graffiti.
A structure in sheet or roll form, comprising a layer of recycled paper in which one side is treated with a composition comprising a water-repellent product and the opposite side is treated with a composition comprising substances of natural origin which are active in inhibiting plant pests and parasites, wherein the substances of natural origin that are active in inhibiting plant pests and parasites are tannins, polyphenols of natural origin, terpenoids of natural origin,
An ornament assembly comprising: a first body comprising a first base defining a first through hole at a center of the first base and a first protrusion protruded from a boundary of the first through hole; and a second body comprising a second base defining a second through hole at a center of the second base and a second protrusion protruded from a boundary of the second through hole, wherein the first protrusion has an insert groove at a surface which is opposite to the second protrusion, and the second protrusion is inserted into the insert groove to be combined with the first protrusion; wherein the insert groove is provided on a bottom surface of the first protrusion; an end portion of the second protrusion is received within the first protrusion of the first body; characterized in that the first body further comprises a locking jaw which is formed at a side of the insert groove of the first protrusion, the second body further comprises a locking portion which is protruded at an end portion of the second protrusion toward outside, and the locking portion is inserted in the insert groove and is stuck and supported by the locking jaw. a first body comprising a first base defining a first through hole at a center of the first base and a first protrusion protruded from a boundary of the first through hole; and a second body comprising a second base defining a second through hole at a center of the second base and a second protrusion protruded from a boundary of the second through hole, wherein the first protrusion has an insert groove at a surface which is opposite to the second protrusion, and the second protrusion is inserted into the insert groove to be combined with the first protrusion; wherein the insert groove is provided on a bottom surface of the first protrusion; an end portion of the second protrusion is received within the first protrusion of the first body; characterized in that the first body further comprises a locking jaw which is formed at a side of the insert groove of the first protrusion, the second body further comprises a locking portion which is protruded at an end portion of the second protrusion toward outside, and the locking portion is inserted in the insert groove and is stuck and supported by the locking jaw.
A computer-implemented method for encoding video content for wireless transmission comprising: determining a first, a second, and a third candidate bitrate for encoding, using a first video codec, a segment of a source video, wherein the first candidate bitrate is a bitrate for the source video encoded using a second video codec modified by a scaling factor, wherein the second candidate bitrate is an average bitrate for at least one of the segment of the source video encoded using the first video codec or a previous segment of the source video encoded using the first video codec, and wherein the third candidate bitrate is an encoding bitrate prediction for at least one of the segment encoded using the first video codec or the previous segment encoded using the first video codec; selecting an encoding bitrate for the segment of the source video as a minimum of the first, second, and third candidate bitrates; and encoding, using the first video codec, the segment of the source video based on the selected encoding bitrate. determining a first, a second, and a third candidate bitrate for encoding, using a first video codec, a segment of a source video, wherein the first candidate bitrate is a bitrate for the source video encoded using a second video codec modified by a scaling factor, wherein the second candidate bitrate is an average bitrate for at least one of the segment of the source video encoded using the first video codec or a previous segment of the source video encoded using the first video codec, and wherein the third candidate bitrate is an encoding bitrate prediction for at least one of the segment encoded using the first video codec or the previous segment encoded using the first video codec; selecting an encoding bitrate for the segment of the source video as a minimum of the first, second, and third candidate bitrates; and encoding, using the first video codec, the segment of the source video based on the selected encoding bitrate.
Flap device for opening and closing a wastegate channel in a turbine housing of a turbocharger, having - a lever element with a through-passage bore, in which a cylindrical bushing is arranged; - a flap with a pin, said flap being arranged on the lever element such that the pin is guided through the bushing; and - a cover disc, which is arranged on a side opposite the flap and has an opening, through which the pin of the flap is guided; wherein the flap is riveted to the lever element by means of the pin, and wherein the bushing has at least one groove, into which a resilient plate is introduced such that a radial clamping force of the resilient plate is active between the through-passage bore and the bushing. - a lever element with a through-passage bore, in which a cylindrical bushing is arranged; - a flap with a pin, said flap being arranged on the lever element such that the pin is guided through the bushing; and - a cover disc, which is arranged on a side opposite the flap and has an opening, through which the pin of the flap is guided;
A lithium-ion secondary battery, comprising a positive electrode plate, a negative electrode plate, an electrolyte and a separator, wherein the positive electrode plate comprises a positive electrode current collector and a first positive electrode active material layer and a second positive electrode active material layer sequentially disposed on at least one side of the positive electrode current collector; the lithium-ion secondary battery satisfies formula: − 1 ≤ log 10 u / v × w ≤ 15.5 wherein, u is a thickness of the first positive electrode active material layer in microns, v is a thickness of the second positive electrode active material layer in microns, w is a conductivity of the electrolyte at a temperature of 25°C in mS·cm -1. u is a thickness of the first positive electrode active material layer in microns, v is a thickness of the second positive electrode active material layer in microns, w is a conductivity of the electrolyte at a temperature of 25°C in mS·cm -1.
A sample preparation cartridge, comprising: a frame, comprising: a first plurality of wells integrated therewith, wherein the first plurality of wells have a closed bottom and an open top; a first reaction vessel opening within the frame having a first RV removably disposed therein, a first RV cap opening within the frame having a first RV cap removably disposed therein, a first plunger opening within the frame comprising a first plunger removably disposed therein, wherein the first RV opening, the first RV cap opening, and the first plunger opening are open at the bottom, and wherein the first plurality of wells and the first RV opening, the first RV cap opening, and the first plunger opening are linearly arranged relative to each other. a first plurality of wells integrated therewith, wherein the first plurality of wells have a closed bottom and an open top; a first reaction vessel opening within the frame having a first RV removably disposed therein, a first RV cap opening within the frame having a first RV cap removably disposed therein, a first plunger opening within the frame comprising a first plunger removably disposed therein, wherein the first RV opening, the first RV cap opening, and the first plunger opening are open at the bottom, and