mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling undesirable vegetation and improving crop tolerance in 2,4-D-, glyphosate- and glufosinate-tolerant soybeans, corn, or cotton, comprising contacting undesirable vegetation and 2,4-D-, glyphosate- and glufosinate-tolerant soybeans, corn, or cotton or the locus thereof, or foliage or soil, with a composition comprising a mixture comprising a synergistic, herbicidally effective amount of: (a) the choline salt of 2,4-dichlorophenoxyacetic acid (2,4-D-choline) (b) a salt of N -(phosphonomethyl)glycine (glyphosate) and (c) the ammonium salt of 2-amino-4-(hydroxymethylphosphinyl)butanoic acid (glufosinate ammonium) (a) the choline salt of 2,4-dichlorophenoxyacetic acid (2,4-D-choline) (b) a salt of N -(phosphonomethyl)glycine (glyphosate) and (c) the ammonium salt of 2-amino-4-(hydroxymethylphosphinyl)butanoic acid (glufosinate ammonium)
A windshield wiper system, comprising: a brushless direct current (BLDC) motor with a motor output shaft gear; a gear train comprising a first gear, which has a first diameter and engages with the motor output shaft gear, and a second gear, which has a second diameter that is shorter than the first diameter and rotates with the first gear; characterised by an internally cut sector gear, which is coupled with a wiper output shaft and formed to define an internal geared groove that engages with the second gear. a brushless direct current (BLDC) motor with a motor output shaft gear; a gear train comprising a first gear, which has a first diameter and engages with the motor output shaft gear, and a second gear, which has a second diameter that is shorter than the first diameter and rotates with the first gear; characterised by an internally cut sector gear, which is coupled with a wiper output shaft and formed to define an internal geared groove that engages with the second gear.
An integrated circuit configured to drive a fluid ejection device comprising a plurality of fluid actuation devices, the integrated circuit comprising: a plurality of contact pads (114,116,118) comprising a first contact pad and a second contact pad; a plurality of pulldown devices (104,106,108), each pulldown device (104, 106, 108) to present a load to the corresponding contact pad (114, 116, 118) that is to be measured to determine proper electrical connection of the contract pad (114, 116, 118) when the pulldown device (104, 106, 108) is enabled, each of the pulldown devices (104,106,108) electrically coupled to a corresponding contact pad (114,116,118) by a respective first signal path (115, 117, 119); and control logic to enable at least a portion of the pulldown devices (104,106,108) in response to both a logic low signal on the first contact pad and a logic low signal on the second contact pad, the control logic coupled to the plurality of pulldown devices (104, 106, 108) by respective second signal paths (EN, EN-2, EN-3) different to the first signal paths (115, 117, 119). a plurality of contact pads (114,116,118) comprising a first contact pad and a second contact pad; a plurality of pulldown devices (104,106,108), each pulldown device (104, 106, 108) to present a load to the corresponding contact pad (114, 116, 118) that is to be measured to determine proper electrical connection of the contract pad (114, 116, 118) when the pulldown device (104, 106, 108) is enabled, each of the pulldown devices (104,106,108) electrically coupled to a corresponding contact pad (114,116,118) by a respective first signal path (115, 117, 119); and control logic to enable at least a portion of the pulldown devices (104,106,108) in response to both a logic low signal on the first contact pad and a logic low signal on the second contact pad, the control logic coupled to the plurality of pulldown devices (104, 106, 108) by respective second signal paths (EN, EN-2, EN-3) different to the first signal paths (115, 117, 119).
An LED lighting fixture comprising: a housing having a hollow interior cavity defined by a backwall defining a outer surface, and a surrounding wall extending from the backwall to a forward edge; an LED-support structure integrally-formed with the housing and extending in the interior cavity from the backwall to an LED-supporting surface; an LED illuminator mounted in the interior cavity of the housing to the LED-supporting surface positioning the LED illuminator in a desired orientation, the LED-support structure being a heat sink transferring heat from the LED illuminator to the housing; and an LED driver within the interior cavity and secured against the housing which transfers heat therefrom, characterized in that the LED-support structure is substantially hollow and the backwall comprises a backwall aperture leading into the hollow LED-support structure which defines an aperture allowing passage of wiring into the interior cavity from the backwall aperture. a housing having a hollow interior cavity defined by a backwall defining a outer surface, and a surrounding wall extending from the backwall to a forward edge; an LED-support structure integrally-formed with the housing and extending in the interior cavity from the backwall to an LED-supporting surface; an LED illuminator mounted in the interior cavity of the housing to the LED-supporting surface positioning the LED illuminator in a desired orientation, the LED-support structure being a heat sink transferring heat from the LED illuminator to the housing; and an LED driver within the interior cavity and secured against the housing which transfers heat therefrom, characterized in that the LED-support structure is substantially hollow and the backwall comprises a backwall aperture leading into the hollow LED-support structure which defines an aperture allowing passage of wiring into the interior cavity from the backwall aperture.
A solid form of -6-(2-fluorophenyl)-N-(3-(2-(2-methoxyethylamino)ethyl)phenyl)-5,6-dihydrobenzo[h]quinazolin-2-amine dihydrochloride (Compound A), which is a Form D polymorph of Compound A characterized by an X-ray powder diffraction pattern comprising peaks at approximately 14.9, 23.1, and 23.8 °2θ using Cu Kα radiation, wherein "approximately" means plus or minus 0.2°2θ.
A solid-state source of white light, having a predetermined correlated colour temperature and a predetermined lowest luminous efficacy of radiation or lowest luminous efficiency, comprising at least one package of at least two groups of visible-light emitters having different spectral power distributions and individual relative partial radiant fluxes; an electronic circuit for the control of the average driving current of each group of emitters and/or the number of the emitters lighted on within a group; and a component for uniformly distributing radiation from the different groups of emitters over an illuminated object characterised in that the spectral power distributions and relative partial radiant fluxes generated by each group of emitters are such that, in comparison with a reference light source when each of more than fifteen test colour samples resolved by an average human eye as different is illuminated, the colour saturating ability is controlled in such a way that both the fraction of the test colour samples that are rendered with increased saturation and the fraction of the test colour samples that are rendered with decreased saturation are predetermined and/or are dynamically traded off.
A floating entrainment metallurgical process comprising the following steps: - the reaction gas is tangentially fed into the rotating generator along numbers of uniformly distributed rotary air inlets and adjusted by the control valve to form controllable rotating airflow, in addition, a conical exit air speed controller that can be moved up and down is adopted to control the exit area of the rotating generator, thus controlling the velocity of the reaction gas into the reaction furnace; - the powdery material flow falls freely around the circular space, enters the reaction furnace and then is involved in the high-speed rotating airflow; - the furnace gas is spurred and entrained by rotating fluid jetted into the reaction furnace from the top to the bottom, and forms a gas-solid mixed rotating fluid together with material and reaction gas, the so called gas-solid mixed rotating fluid being a powdery material highly dispersed in the reaction gas, and rotating at high speed on the radial direction, while moving down on the axial direction; - the furnace gas flows back from the bottom to the top, and the injection and rotation of the rotating fluid within the reactor furnace shall form the furnace gas into a relatively low-temperature circular backflow protection area, after that, the molten droplet accompanied by the backflow furnace gas will form into a refractory substance protection layer on the lining of the reaction furnace; wherein the abovementioned rotary air inlets are vertical to the central axis and distributed by equal angles; and the abovementioned control valves are controlled by the same signal. - the reaction gas is tangentially fed into the rotating generator along numbers of uniformly distributed rotary air inlets and adjusted by the control valve to form controllable rotating airflow, in addition, a conical exit air speed controller that can be moved up and down is adopted to control the exit area of the rotating generator, thus controlling the velocity of the reaction gas into the reaction furnace; - the powdery material flow falls freely around the circular space, enters the reaction furnace and then is involved in the high-speed rotating airflow; - the furnace gas is spurred and entrained by rotating fluid jetted into the reaction furnace from the top to the bottom, and forms a gas-solid mixed rotating fluid together with material and reaction gas, the so called gas-solid mixed rotating fluid being a powdery material highly dispersed in the reaction gas, and rotating at high speed on the radial direction, while moving down on the axial direction; - the furnace gas flows back from the bottom to the top, and the injection and rotation of the rotating fluid within the reactor furnace shall form the furnace gas into a relatively low-temperature circular backflow protection area, after that, the molten droplet accompanied by the backflow furnace gas will form into a refractory substance protection layer on the lining of the reaction furnace; wherein the abovementioned rotary air inlets are vertical to the central axis and distributed by equal angles; and the abovementioned control valves are controlled by the same signal.
A coordinate positioning apparatus comprising first (108, 502a) and second (110, 504) relatively moveable bodies, at least the first body comprising at least one sheet or plate of material (202, 204, 220, 503, 505, 507) arranged to provide a load-bearing structure comprising a plurality of planar load-bearing members (202, 204, 220, 503, 505, 507) and on which at least one first member (252, 508) is mounted to the first body via a load spreader (280, 610) which is coupled to at least three, non-parallel planar load-bearing members (202, 204, 220, 503, 505, 507) of the first body, in which the planes of said at least three non-parallel planar load-bearing members intersect each other at a common point, and in which the load spreader (280, 610) is coupled to the at least three non-parallel planar load-bearing members (202, 204, 220, 503, 505, 507) of the first body (108, 502a) substantially in the corner at which said planar load-bearing members converge toward.
A method for supervision and adjustment of a function of an exhaust post-treatment system for a combustion engine on the basis of a measurement signal from a sensor for the magnitude of a parameter related to nitrogen oxides (NO X) in exhaust gases flowing out from an exhaust post-treatment device, e.g. in the form of a catalyst or a filter, which forms part of the exhaust post-treatment system, with detection of amplitude values for the measurement signal delivered by the sensor over a certain measuring period, and addition of a reducing agent to the exhaust gases flowing into the exhaust post-treatment device, characterised in that the method further comprises - varying the amount of reducing agent added according to a predetermined pattern over a measuring period, whereby the reducing agent is added by injection at a dosing frequency F, with a dosing period time L (L=1/F) defined as the time between the beginning of two consecutive injections, which injection takes place for a settable dosing time t of said dosing period time such that 0<t<L, and the amount of reducing agent is varied by varying the dosing frequency and/or the dosing time for its injection, - detecting the NO X amplitude variations in the exhaust gases downstream of the exhaust post-treatment device, and - identifying and storing values for the amount of reducing agent added when the NO X amplitude variations detected in the exhaust gases downstream of the exhaust post-treatment device fulfil predetermined criteria for optimum regulation of the amount added. - varying the amount of reducing agent added according to a predetermined pattern over a measuring period, whereby the reducing agent is added by injection at a dosing frequency F, with a dosing period time L (L=1/F) defined as the time between the beginning of two consecutive injections, which injection takes place for a settable dosing time t of said dosing period time such that 0<t<L, and the amount of reducing agent is varied by varying the dosing frequency and/or the dosing time for its injection, - detecting the NO X amplitude variations in the exhaust gases downstream of the exhaust post-treatment device, and - identifying and storing values for the amount of reducing agent added when the NO X amplitude variations detected in the exhaust gases downstream of the exhaust post-treatment device fulfil predetermined criteria for optimum regulation of the amount added.
A method for detecting a chromosomal aneuploidy in a fetus carried by a pregnant woman, comprising the steps of: (a) determining in a biological sample taken from the pregnant woman the amount of a methylation marker of fetal origin, wherein the methylation marker is located on a chromosome relevant to the chromosomal aneuploidy or within a section of a chromosome relevant to the chromosomal aneuploidy, and wherein the methylation marker of fetal origin is distinguished from its counterpart of maternal origin due to differential DNA methylation; (b) determining the amount of a genetic marker of fetal origin in the sample, wherein the genetic marker is located on a reference chromosome, and wherein the genetic marker of fetal origin is distinguished from its counterpart of maternal origin in the sample due to difference in polynucleotide sequence, or the genetic marker does not exist in the maternal genome; (c) determining the ratio of the amounts from (a) and (b); and (d) comparing the ratio with a standard control, wherein the ratio higher or lower than the standard control indicates the presence of the chromosomal aneuploidy in the fetus. (a) determining in a biological sample taken from the pregnant woman the amount of a methylation marker of fetal origin, wherein the methylation marker is located on a chromosome relevant to the chromosomal aneuploidy or within a section of a chromosome relevant to the chromosomal aneuploidy, and wherein the methylation marker of fetal origin is distinguished from its counterpart of maternal origin due to differential DNA methylation; (b) determining the amount of a genetic marker of fetal origin in the sample, wherein the genetic marker is located on a reference chromosome, and wherein the genetic marker of fetal origin is distinguished from its counterpart of maternal origin in the sample due to difference in polynucleotide sequence, or the genetic marker does not exist in the maternal genome; (c) determining the ratio of the amounts from (a) and (b); and (d) comparing the ratio with a standard control, wherein the ratio higher or lower than the standard control indicates the presence of the chromosomal aneuploidy in the fetus.
Dressing apparatus for processing two wires simultaneously travelling in parallel and close to one another or one travelling wire, the device comprising at least two drivable rollers (2, 3) which coaxially laterally adjoin one another and form a first roller pair which can be driven by a shaft, which roller pair is arranged opposite a second pair of rollers (2', 3') of this kind thus forming two processing gaps for each wire (1, 1') travelling through, it being possible to drive the rollers of the second roller pair in an opposite direction on an axis parallel to the axis of the first pair by means of a second shaft, in each case one (2, 2') of the rollers (2, 3; 2', 3') of the at least two roller pairs being fixedly connected to the drive shaft (4; 4') thereof and the other roller (3; 3') of the two roller pairs being rotatably mounted on the roller (2; 2') fixed to the drive shaft (4; 4'), characterised in that each of the rollers (3; 3') which is mounted on a roller (2; 2') fixed to the shaft (4; 4') can be coupled to said roller (2; 2').
Capacitor (1, 2, 4), in particular electrolytic capacitor, comprising a housing cup (3, 47, 48), wherein the capacitor (1, 2, 4) is connected to a heat sink in such a way that heat which is generated by the capacitor (1, 2, 4) can be output to the heat sink, wherein the heat sink has a recess (8, 22, 23, 24, 25) in which the capacitor (1, 2, 4) is at least partially accommodated, and the housing cup (3, 47, 48) in the recess (8, 22, 23, 24, 25) is at least thermally conductivity connected to the heat sink, wherein the capacitor (1, 2, 4) is pressed into the recess in such a way that at least one region of the housing cup (3, 47, 48) makes thermally conductive or additionally electrical contact with a wall of the recess (8, 22, 23, 24, 25), characterized in that the capacitor has radially outwardly extending ribs at least on a section which is designed to be pressed in, the said ribs being designed to make thermally conductive or additionally electrical contact with the heat sink in the region of the recess (8, 22, 23, 24, 25) and to firmly clamp the capacitor in the recess (8, 22, 23, 24, 25).
Method for autonomously parking a motor vehicle in a parking space, in which method the parking space is detected, a trajectory for parking the motor vehicle in the parking space is determined, a profile of a steering angle for a movement of the motor vehicle along the trajectory is determined on the basis of the trajectory, a speed profile for the movement of the motor vehicle along the trajectory is determined as a function of the profile of the steering angle, and the motor vehicle is parked autonomously in the parking space as a function of the speed profile, wherein the trajectory is divided into a plurality of sections (11, 12, 13) as a function of the profile of the steering angle, and a maximum speed (V1, V2, V4) is predefined for determining the speed profile for each of the sections (11, 12, 13), and a change in speed between the maximum speeds (V1, V2, V4) of the adjacent sections (11, 12, 13) is predefined for respective transitions between successive sections (11, 12, 13), characterized in that at least one of the sections into which the trajectory is divided is a section in which a steering intervention is carried out, wherein the maximum speed in the at least one section in which a steering intervention is carried out is determined as a function of a predetermined maximum steering speed.
A discharge apparatus configured to carry out a printing method, the discharge apparatus comprising: an ink accommodating unit that accommodates a clear ink, the clear ink including water and resin particles; a discharge head (434; 4a; 4b) including a nozzle configured to discharge the clear ink to a print target; a heating unit configured to heat the print target; and a wiping member configured to wipe a nozzle-formed surface of the discharge head (434; 4a; 4b) including the nozzle, characterized in that the resin particles have a volume average particle diameter of 50 nm or less, the resin particles include resin particles A and resin particles B, and the resin particles A have a glass transition temperature of 50 degrees Celsius or higher and the resin particles B have a glass transition temperature of lower than 0 degrees Celsius, such that a dried film of the clear ink has glass transition temperatures at 50 degrees Celsius or higher and at lower than 0 degrees Celsius. an ink accommodating unit that accommodates a clear ink, the clear ink including water and resin particles; a discharge head (434; 4a; 4b) including a nozzle configured to discharge the clear ink to a print target; a heating unit configured to heat the print target; and a wiping member configured to wipe a nozzle-formed surface of the discharge head (434; 4a; 4b) including the nozzle, characterized in that the resin particles have a volume average particle diameter of 50 nm or less, the resin particles include resin particles A and resin particles B, and the resin particles A have a glass transition temperature of 50 degrees Celsius or higher and the resin particles B have a glass transition temperature of lower than 0 degrees Celsius, such that a dried film of the clear ink has glass transition temperatures at 50 degrees Celsius or higher and at lower than 0 degrees Celsius.
Sash for a sliding window or a sliding door, the sash comprising at least two metallic members (4, 5) connected by one or more insulating strips (7, 8), wherein the two metallic members (4, 5) and one of the insulating strips confine a cavity including a first side in a direction (y) perpendicular to a plane (x-z) in which the sliding window or the sliding door extends and a second side opposite to the first side, characterized in that a low emissivity surface (5a; 6a) is disposed along the first side or the second side, an emissivity ε of the low emissivity surface (5a; 6a) being less than or equal to 0.3, and the low emissivity surface (5a; 6a) is formed by a non-treated surface of one of the two metallic members (4, 5) on the corresponding first or second side (10, 11) or by a low emissivity foil.