mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a storage chamber ; an extractable container withdrawably mounted in the storage chamber , the extractable container comprising a vertical wall defining a storage space ; and a partition unit ; characterized in that the partition unit includes a rectangular frame comprising first and second facing side walls (211, 212; 213, 214) opened through a center thereof and seated on an inside of the vertical wall , a first partition member crossing the storage space in a first direction with both ends thereof supported by the first facing sidewalls of the rectangular frame , a second partition member crossing the storage space in a second direction intersecting the first direction with both ends thereof supported by the second facing sidewalls of the rectangular frame , a plurality of slide members formed at both ends of the first and the second partition members (231; 235), and a plurality of guide members formed at the first and the second sidewalls (211, 212; 213, 214) of the rectangular frame . a storage chamber ; an extractable container withdrawably mounted in the storage chamber , the extractable container comprising a vertical wall defining a storage space ; and a partition unit ; characterized in that the partition unit includes a rectangular frame comprising first and second facing side walls (211, 212; 213, 214) opened through a center thereof and seated on an inside of the vertical wall , a first partition member crossing the storage space in a first direction with both ends thereof supported by the first facing sidewalls of the rectangular frame , a second partition member crossing the storage space in a second direction intersecting the first direction with both ends thereof supported by the second facing sidewalls of the rectangular frame , a plurality of slide members formed at both ends of the first and the second partition members (231; 235), and a plurality of guide members formed at the first and the second sidewalls (211, 212; 213, 214) of the rectangular frame .
Method for operating a wind farm which comprises a farm master and a plurality of wind power plants , each with a controller , for generating electrical power, where the farm master prespecifies the power output of the wind power plants, and the wind farm can be operated in a normal mode and a reduced-power throttle mode, where, in the throttle mode, a signal for a power reduction of the wind farm ΔP set,farm is applied to the farm master and participating wind power plants throttle their power generation on this basis, characterized by defining an individual setpoint power reduction P set,i for each participating wind power plant, comprising the steps of: determining an available power P avail(i) for each of the participating wind power plants and reducing this available power by a reduction proportion ΔP i ; determining the reduction proportions ΔP i using an optimization method with the optimization condition of equal increase time T regain, opt = T regain, i for all participating wind power plants; and repeating until the optimization method reaches a presettable termination criterion. determining an available power P avail(i) for each of the participating wind power plants and reducing this available power by a reduction proportion ΔP i ; determining the reduction proportions ΔP i using an optimization method with the optimization condition of equal increase time T regain, opt = T regain, i for all participating wind power plants; and repeating until the optimization method reaches a presettable termination criterion.
Circuit arrangement for a high-voltage test installation, comprising an electronic converter unit for generating a stimulus AC voltage having an adjustable fundamental frequency and a frequency spectrum, characterized in that the amplitudes of the frequency spectrum are below a prescribable amplitude threshold value within a prescribed frequency range, wherein the prescribed frequency range contains the frequencies from 30 kHz to 1 MHz, and the frequency spectrum has amplitudes that are essential only at the fundamental frequency and at a limited number of multiples of the fundamental frequency.
Fluid-circulation valve comprising a body having a fluid passageway , a shutter to close off the passageway , an actuator to actuate the shutter , the actuator being free to rotate and comprising a torsion spring, and a member driving the rotation of the actuator , the valve comprising positioning means for positioning the spring , these means being formed by a ramp able to guide a first end of the spring as far as its functional position, the ramp being formed by a guideway or a groove, characterized in that the width of the positioning means for positioning the first end of the spring decreases progressively as far as the radial end stop .
A system for assembling a wind turbine blade shell , the system comprising: - a first support structure comprising a stationary portion and a moveable portion , the moveable portion being adapted to support a first wind turbine blade shell half , - a second support structure adapted to support a second wind turbine blade shell half , - moving means attached to the moveable portion and configured to move the moveable portion between: i. a first position in which the moveable portion is positioned above the stationary structure, and ii. a second position in which the moveable portion is positioned above the second support structure, wherein when the moveable portion is in the second position, the first wind turbine blade shell half, when supported by the moveable portion, and the second wind turbine blade shell half, when supported by the second support structure, are assembled, forming the wind turbine blade shell . - a first support structure comprising a stationary portion and a moveable portion , the moveable portion being adapted to support a first wind turbine blade shell half , - a second support structure adapted to support a second wind turbine blade shell half , - moving means attached to the moveable portion and configured to move the moveable portion between: i. a first position in which the moveable portion is positioned above the stationary structure, and ii. a second position in which the moveable portion is positioned above the second support structure, wherein when the moveable portion is in the second position, the first wind turbine blade shell half, when supported by the moveable portion, and the second wind turbine blade shell half, when supported by the second support structure, are assembled, forming the wind turbine blade shell . i. a first position in which the moveable portion is positioned above the stationary structure, and ii. a second position in which the moveable portion is positioned above the second support structure, wherein when the moveable portion is in the second position, the first wind turbine blade shell half, when supported by the moveable portion, and the second wind turbine blade shell half, when supported by the second support structure, are assembled, forming the wind turbine blade shell .
A method of controlling undesirable vegetation comprising contacting the undesirable vegetation, the area adjacent to the undesirable vegetation, water or soil with a herbicidally effective amount of (a) a compound of the formula (I): or, with respect to its carboxylic acid moiety, an agriculturally acceptable salt, ester, or amide thereof, (b) fluroxypyr, or, with respect to its carboxylic acid moiety, an agriculturally acceptable ester, amide, or salt thereof, and (c) one or more phenoxy auxins or an agriculturally acceptable ester, amide, or salt thereof, wherein the phenoxy auxin is MCPA and the carboxylic acid equivalent weight ratio of (a) to (b) to (c) is from 1:12:60 to 1:18:80, and wherein the undesirable vegetation is hemp-nettle ( Galeopsis tetrahit, GAETE), common ragweed (Ambrosia artemisiifolia, AMBEL), absinth wormwood ( Artemisia absinthium , ARTAB), or volunteer canola (Brassica napus, BRSNN). (a) a compound of the formula (I): or, with respect to its carboxylic acid moiety, an agriculturally acceptable salt, ester, or amide thereof, (b) fluroxypyr, or, with respect to its carboxylic acid moiety, an agriculturally acceptable ester, amide, or salt thereof, and (c) one or more phenoxy auxins or an agriculturally acceptable ester, amide, or salt thereof,
A substrate aligning apparatus comprising: an aligning section for aligning a first substrate and a second substrate together; an acquiring section being configured for acquiring positional information on at least one of the first substrate and the second substrate , by the time the first substrate and the second substrate which have been aligned in the aligning section are carried out from the aligning section , the positional information being acquired after the first substrate and the second substrate have been aligned by the aligning section ; and a judging section for judging misalignment of the first substrate and the second substrate , based on information acquired by the acquiring section ; characterized in that the judging section is configured for judging the misalignment based on comparing the positional information acquired by the acquiring section and a correlation of positional information and misalignment. an aligning section for aligning a first substrate and a second substrate together; an acquiring section being configured for acquiring positional information on at least one of the first substrate and the second substrate , by the time the first substrate and the second substrate which have been aligned in the aligning section are carried out from the aligning section , the positional information being acquired after the first substrate and the second substrate have been aligned by the aligning section ; and a judging section for judging misalignment of the first substrate and the second substrate , based on information acquired by the acquiring section ; characterized in that the judging section is configured for judging the misalignment based on comparing the positional information acquired by the acquiring section and a correlation of positional information and misalignment.
A fastening arrangement (1; 60) with damping effect consisting of two identically constructed fastening units (3; 63; 103) with a central first thru-opening (5; 105) each, characterized in that each fastening unit (3; 63; 103) includes: a. an assembly element (10; 110) as well as a damping element (30; 130), and b. the assembly element (10; 110) is formed disk-like with a central second thru-opening and an identical latching structure extends from a first side (14; 114) of each assembly element (10; 110), c. the damping element (30; 130) is formed disk-like with a central third thru-opening and is arranged at least partly in the central second thru-opening of the assembly element (10; 110), so that d. the two fastening units (3; 63; 103) are fastenable to each other via the first sides (14; 114) which are facing each other, with the identical latching structure of the respective assembly elements (10; 110) with a first component (A) being interposed. a. an assembly element (10; 110) as well as a damping element (30; 130), and b. the assembly element (10; 110) is formed disk-like with a central second thru-opening and an identical latching structure extends from a first side (14; 114) of each assembly element (10; 110), c. the damping element (30; 130) is formed disk-like with a central third thru-opening and is arranged at least partly in the central second thru-opening of the assembly element (10; 110), so that d. the two fastening units (3; 63; 103) are fastenable to each other via the first sides (14; 114) which are facing each other, with the identical latching structure of the respective assembly elements (10; 110) with a first component (A) being interposed.
A replacement tube, comprising: a closed cell foam formed in a cylindrical tube and flexible to absorb pressure pulsations in a chamber of a suction manifold or in another device; and characterised by comprising a reinforcement device fixed along a length of the closed cell foam and extending at least a majority of the length of the closed cell foam to support the closed cell foam from flexing and collapsing along the length of the closed cell foam; wherein the reinforcement device comprises a perforated C-shaped sheet embedded in the closed cell foam and extending circumferentially more than halfway around a central axis of the closed cell foam. a closed cell foam formed in a cylindrical tube and flexible to absorb pressure pulsations in a chamber of a suction manifold or in another device; and a reinforcement device fixed along a length of the closed cell foam and extending at least a majority of the length of the closed cell foam to support the closed cell foam from flexing and collapsing along the length of the closed cell foam; wherein the reinforcement device comprises a perforated C-shaped sheet embedded in the closed cell foam and extending circumferentially more than halfway around a central axis of the closed cell foam.
A circuit comprising: a plurality of direct current (DC) voltage inputs (V 1 - V 3 ); a plurality of coupled inductors including primary windings (L 1 -L 5 ) and secondary windings (L 2 -L 6 ); a plurality of first switches (G 5 -G 4 ) connected respectively between the DC voltage inputs and the primary windings; and a plurality of second switches (G 6 -G 3 ) connected respectively between the DC voltage inputs and the secondary windings, wherein a high voltage end of at least one of the secondary windings is conductively connected to a high voltage end of a respective primary winding, wherein the secondary windings are adapted for connecting to a combined direct current power output which combines the DC voltage inputs. a plurality of direct current (DC) voltage inputs (V 1 - V 3 ); a plurality of coupled inductors including primary windings (L 1 -L 5 ) and secondary windings (L 2 -L 6 ); a plurality of first switches (G 5 -G 4 ) connected respectively between the DC voltage inputs and the primary windings; and a plurality of second switches (G 6 -G 3 ) connected respectively between the DC voltage inputs and the secondary windings, wherein a high voltage end of at least one of the secondary windings is conductively connected to a high voltage end of a respective primary winding, wherein the secondary windings are adapted for connecting to a combined direct current power output which combines the DC voltage inputs.
A two-ply tissue paper to which a polyol is not applied by external addition, wherein the tissue paper has a basis weight per ply of 14.0 to 17.0 g/m 2 , a paper thickness for two plies of 160 to 220 pm, and a water content of 4.0 to 9.0% by mass, wherein the tissue paper is obtainable by supplying, to a paper raw material slurry, a weak cationic acidic softening agent in a dispersed state, containing a nonionic activator and a cationic activator at a low concentration of 25 to 35 % by mass and a viscosity of 500 mPa·s or less, in an amount of 0.2 to 0.5 % by mass with respect to a total weight of the pulp fibers, in order that the tissue paper contains 0.15 to 0.45% by mass of an oily component derived from an internal additive and extractable with diethyl ether, and has a bending rigidity of less than 0.006 gf-cm/cm in CD (cross direction) and a bending recovery force of less than 0.005 gf·cm/cm in CD. the tissue paper has a basis weight per ply of 14.0 to 17.0 g/m 2 , a paper thickness for two plies of 160 to 220 pm, and a water content of 4.0 to 9.0% by mass, wherein the tissue paper is obtainable by supplying, to a paper raw material slurry, a weak cationic acidic softening agent in a dispersed state, containing a nonionic activator and a cationic activator at a low concentration of 25 to 35 % by mass and a viscosity of 500 mPa·s or less, in an amount of 0.2 to 0.5 % by mass with respect to a total weight of the pulp fibers, in order that the tissue paper contains 0.15 to 0.45% by mass of an oily component derived from an internal additive and extractable with diethyl ether, and has a bending rigidity of less than 0.006 gf-cm/cm in CD (cross direction) and a bending recovery force of less than 0.005 gf·cm/cm in CD.
A lanyard assembly comprising: a strap having a first end and a second end ; a cinch coupled to the first end ; an attachment member coupled to the second end ; characterized by a tubular identifier sewn into the strap , the tubular identifier configured for use with a tracking system that communicates when the strap is due to be inspected or replaced. a strap having a first end and a second end ; a cinch coupled to the first end ; an attachment member coupled to the second end ; characterized by a tubular identifier sewn into the strap , the tubular identifier configured for use with a tracking system that communicates when the strap is due to be inspected or replaced.
A branched connector for high-density neural interfaces comprising a supporting structure ; a main body comprising a base portion of the supporting structure and a plurality of conductive traces formed on the base portion, wherein the base portion of the supporting structure is comprised of one or more layers of dielectric material; wherein the branched connector further comprises: a plurality of plugs extending from the main body, wherein each plug of the plurality of plugs comprises: a respective end portion of the supporting structure comprised of the one or more layers of dielectric material; and a subset of conductive traces from the plurality of conductive traces, wherein each trace from the subset of conductive traces terminates at a bond pad exposed on a surface of the respective end portion of the supporting structure. a main body comprising a base portion of the supporting structure and a plurality of conductive traces formed on the base portion, wherein the base portion of the supporting structure is comprised of one or more layers of dielectric material; wherein the branched connector further comprises: a plurality of plugs extending from the main body, wherein each plug of the plurality of plugs comprises: a respective end portion of the supporting structure comprised of the one or more layers of dielectric material; and a subset of conductive traces from the plurality of conductive traces, wherein each trace from the subset of conductive traces terminates at a bond pad exposed on a surface of the respective end portion of the supporting structure. a respective end portion of the supporting structure comprised of the one or more layers of dielectric material; and a subset of conductive traces from the plurality of conductive traces, wherein each trace from the subset of conductive traces terminates at a bond pad exposed on a surface of the respective end portion of the supporting structure.
A dental blank comprising: a material portion inserted into a seating portion that comprises a seating groove having a circular shape in a cross-section, the material portion comprising a plurality of outer contacting portions in contact with an inner side of the seating portion , and the material portion having a polygonal shape in a cross-section in which the polygonal shape distinct from the circular shape, wherein the plurality of outer contacting portions is in linear contact with an inner side surface of the seating portion along an insertion direction where the material portion is inserted into the seating groove , and a tool entrance portion that is a separation space between the seating groove and the material portion is formed due to a difference in shape between the circular shape of the seating groove and the polygonal shape of the material portion . a material portion inserted into a seating portion that comprises a seating groove having a circular shape in a cross-section, the material portion comprising a plurality of outer contacting portions in contact with an inner side of the seating portion , and the material portion having a polygonal shape in a cross-section in which the polygonal shape distinct from the circular shape, wherein the plurality of outer contacting portions is in linear contact with an inner side surface of the seating portion along an insertion direction where the material portion is inserted into the seating groove , and a tool entrance portion that is a separation space between the seating groove and the material portion is formed due to a difference in shape between the circular shape of the seating groove and the polygonal shape of the material portion .
A method for tracking a location of a scanner, the method comprising: (a) translating a scanner having a one-dimensional sensor array across a surface of a target object in an X direction at a known speed from a first X position to second, third and fourth X positions in succession; (b) acquiring successive sets of sensor data at a known capture rate as the scanner translates in the X direction; (c) converting the successive sets of sensor data to respective scan strips of scan image data; (d) constructing a first scan image from a first sequence of scan strips converted from sensor data acquired during movement of the one-dimensional sensor array from the first X position to the third X position; (e) constructing a second scan image from a second sequence of scan strips converted from sensor data acquired during movement of the one-dimensional sensor array from the second X position to the fourth X position; (f) finding feature points in the first and second scan images; (g) determining which feature points found in step (f) are common feature points in the first and second scan images; (h) computing a pixel position difference between the respective positions of a common feature point in the first and second scan images; and (i) computing a scanner displacement by multiplying the pixel position difference computed in step (h) times a scaling factor representing a distance traveled by the scanner per scan strip. (a) translating a scanner having a one-dimensional sensor array across a surface of a target object in an X direction at a known speed from a first X position to second, third and fourth X positions in succession; (b) acquiring successive sets of sensor data at a known capture rate as the scanner translates in the X direction; (c) converting the successive sets of sensor data to respective scan strips of scan image data; (d) constructing a first scan image from a first sequence of scan strips converted from sensor data acquired during movement of the one-dimensional sensor array from the first X position to the third X position; (e) constructing a second scan image from a second sequence of scan strips converted from sensor data acquired during movement of the one-dimensional sensor array from the second X position to the fourth X position; (f) finding feature points in the first and second scan images; (g) determining which feature points found in step (f) are common feature points in the first and second scan images; (h) computing a pixel position difference between the respective positions of a common feature point in the first and second scan images; and (i) computing a scanner displacement by multiplying the pixel position difference computed in step (h) times a scaling factor representing a distance traveled by the scanner per scan strip.