mhurhangee/ep-ind-claims huggingface dataset:
An agricultural composition comprising: a) at least one nitrogen containing isethionic acid salt or an isethionic methyl acid salt, b) at least one agriculturally active ingredient being a weak acid herbicide, c) at least one surfactant, and wherein the agricultural composition is a field ready spray or a tank mix, characterized in that the at least one nitrogen containing isethionic acid salt comprises a cationic nitrogen containing group being an alkyl amine, an alkoxylated alkylamine, a cyclic amine, ammonium, an ethoxylated alkyl amine, a fatty amine, an ethoxylated fatty amine, an ethyleneamine, an ethanolamine, a morpholine, a substituted propylamine, a polyol amine, an N-alkylalkyldiamine, an alkoxylated N-alkylalkyldiamine, an N,N-alkyldiamine, an alkoxylated N,N-alkyldiamine or a combination thereof. a) at least one nitrogen containing isethionic acid salt or an isethionic methyl acid salt, b) at least one agriculturally active ingredient being a weak acid herbicide, c) at least one surfactant, and
A heating method for a rechargeable battery, characterized by: acquiring, a state parameter of the rechargeable battery, wherein the state parameter comprises a remaining power amount; selecting, a frequency value from a frequency value interval, according to a preset correspondence between a remaining power amount interval and the frequency value interval, wherein the remaining power amount interval is an interval to which the remaining power amount belongs; determining, according to the frequency value and the remaining power amount, a current value of a pulse current; estimating, a theoretical heating rate of the rechargeable battery as heated by the pulse current of the current value; and generating, the pulse current according to the frequency value, based on a first matching condition, wherein the first matching condition is that a difference between the theoretical heating rate and a target heating rate is less than a preset first difference. acquiring, a state parameter of the rechargeable battery, wherein the state parameter comprises a remaining power amount; selecting, a frequency value from a frequency value interval, according to a preset correspondence between a remaining power amount interval and the frequency value interval, wherein the remaining power amount interval is an interval to which the remaining power amount belongs; determining, according to the frequency value and the remaining power amount, a current value of a pulse current; estimating, a theoretical heating rate of the rechargeable battery as heated by the pulse current of the current value; and generating, the pulse current according to the frequency value, based on a first matching condition, wherein the first matching condition is that a difference between the theoretical heating rate and a target heating rate is less than a preset first difference.
A ground fault current detection device comprising: a ground fault current detection circuit configured to detect ground fault current based on a zero-phase-sequence current; and a first zero-phase-sequence current transformer configured to detect the zero-phase-sequence current in a plurality of wires, the first zero-phase-sequence current transformer comprising an insert portion configured to receive a plurality of first power wires (113a, 114a, 115a) and a first offset current wire, characterized in that the first zero-phase-sequence current transformer is adapted to receive a first offset current having constant DC through the first offset current wire, and the ground fault current detection circuit is adapted to determine the first offset current from a value of error current output when the current flowing through the plurality of power wires is balanced. a ground fault current detection circuit configured to detect ground fault current based on a zero-phase-sequence current; and a first zero-phase-sequence current transformer configured to detect the zero-phase-sequence current in a plurality of wires, the first zero-phase-sequence current transformer comprising an insert portion configured to receive a plurality of first power wires (113a, 114a, 115a) and a first offset current wire, characterized in that the first zero-phase-sequence current transformer is adapted to receive a first offset current having constant DC through the first offset current wire, and the ground fault current detection circuit is adapted to determine the first offset current from a value of error current output when the current flowing through the plurality of power wires is balanced.
A radio frequency front end of a receiver comprising: a tunable filter (330, 530, 630, 730) for receiving a signal; a controller (360, 560, 670, 760) for tuning the tunable filter; and an interference detection circuit (340, 350, 55, 570, 650, 660, 750, 780, configured to detect interference and provide an input to a controller, wherein said controller tunes said tunable filter based on the input from said interference detection circuit, characterized by the interference detection circuit comprising: a power detector (350, 570, 660, 750) for detecting interference exceeding a threshold and causing an interrupt at said controller; and a frequency detector (340, 55, 650, 780) for determining a frequency of interference, said frequency detector providing an input to said controller. a tunable filter (330, 530, 630, 730) for receiving a signal; a controller (360, 560, 670, 760) for tuning the tunable filter; and an interference detection circuit (340, 350, 55, 570, 650, 660, 750, 780, configured to detect interference and provide an input to a controller, a power detector (350, 570, 660, 750) for detecting interference exceeding a threshold and causing an interrupt at said controller; and a frequency detector (340, 55, 650, 780) for determining a frequency of interference, said frequency detector providing an input to said controller.
A gimbal for controlling an optical device to perform an action, comprising a controlling device, a controlling assembly connected with the controlling device, and a performing assembly connected with the controlling assembly, wherein the controlling assembly is disposed between the controlling device and the performing assembly, wherein, the controlling device comprises a rocker for receiving an action instruction and generating a control instruction to be sent to the controlling assembly, wherein the rocker comprises a rocker handle and a potentiometer assembly connected with the rocker handle; the controlling assembly is configured for generating, based on the control instruction sent by the controlling device, a performing instruction for implementing a corresponding action, and sending the performing instruction to the performing assembly; and the performing assembly is configured for implementing a directional control for the optical device according to the performing instruction.
A method of manufacturing a charge storage cell for a pixel of an imaging device, the method comprising: providing a first trench (202, 306, 404) and a second trench (204, 304, 406) in a substrate material (200, 300, 400), wherein at least one of the first and second trenches is configured to surround at least partially the other of the first and second trenches; filling said first trench (202, 306, 404) with a doped material comprising one of a P dopant and an N dopant and filling the second trench (204, 304, 406) with an undoped material annealing the substrate material to cause said one dopant to diffuse from said first trench and to thereby provide a doped region (206, 308, 408) adjacent said first trench removing said materials from said first and second trenches; and filling at least one of said trenches with polysilicon to provide capacitive deep trench isolation. providing a first trench (202, 306, 404) and a second trench (204, 304, 406) in a substrate material (200, 300, 400), wherein at least one of the first and second trenches is configured to surround at least partially the other of the first and second trenches; filling said first trench (202, 306, 404) with a doped material comprising one of a P dopant and an N dopant and filling the second trench (204, 304, 406) with an undoped material annealing the substrate material to cause said one dopant to diffuse from said first trench and to thereby provide a doped region (206, 308, 408) adjacent said first trench removing said materials from said first and second trenches; and filling at least one of said trenches with polysilicon to provide capacitive deep trench isolation.
Method for detecting an operating state of a vehicle, wherein the operating state is selected from at least a first or a second operating state (26.3, 26.2), in particular from a state of the vehicle with or without a trailer, and the vehicle comprising a pneumatic brake system (52.1) and a pneumatic control connection, which is designed for connecting the pneumatic brake system (52.1) to a further pneumatic brake system (52.2) of a trailer, characterized in that the method includes the following steps: - applying pressure to the control connection until a starting pressure (21.1) in the control connection is set; - opening the control connection such that a pressure between the control connection and an environment is equalized; - detecting (23.1) a temporal pressure pattern during the pressure equalization; - comparing the temporal pressure pattern to a reference pressure pattern; - determining an evaluation result (25.1) based on the comparison of the temporal pressure pattern and the reference pressure pattern; and - assigning the evaluation result (25.1) to the first or the second operating state (26.3, 26.2) of the vehicle. - applying pressure to the control connection until a starting pressure (21.1) in the control connection is set; - opening the control connection such that a pressure between the control connection and an environment is equalized; - detecting (23.1) a temporal pressure pattern during the pressure equalization; - comparing the temporal pressure pattern to a reference pressure pattern; - determining an evaluation result (25.1) based on the comparison of the temporal pressure pattern and the reference pressure pattern; and - assigning the evaluation result (25.1) to the first or the second operating state (26.3, 26.2) of the vehicle.
Mixed oxide composition comprising a silicon-aluminium mixed oxide powder which is present predominantly or completely in the form of aggregated primary particles and in which a) the weight ratio (Al 2 O 3 /SiO 2) ttl in the overall primary particle is 0.002 to 0.05, preferably 0.003 to 0.015, more preferably 0.005 to 0.01, b) the weight ratio (Al 2 O 3 /SiO 2) surface of the primary particles in a layer close to the surface having a thickness of 5 nm is less than in the overall primary particle and c) the BET surface area is 50 to 250 m 2 /g, preferably 100 to 200 m 2 /g; and alkali metal or alkaline earth metal oxides. a) the weight ratio (Al 2 O 3 /SiO 2) ttl in the overall primary particle is 0.002 to 0.05, preferably 0.003 to 0.015, more preferably 0.005 to 0.01, b) the weight ratio (Al 2 O 3 /SiO 2) surface of the primary particles in a layer close to the surface having a thickness of 5 nm is less than in the overall primary particle and c) the BET surface area is 50 to 250 m 2 /g, preferably 100 to 200 m 2 /g; and alkali metal or alkaline earth metal oxides.
A process for preparing the compound of formula II comprising the steps of: providing a compound of formula I: and converting the compound of formula I by bromination into the compound of formula II.
A sorting installation for sorting parcels, the sorting installation comprising a closed-loop bin conveyor having bins and designed to convey parcels in a conveying direction over a plurality of sorting outlets, the sorting installation further comprising a sorting receptacle (6a, 6b) disposed at each sorting outlet in a loading position in which the parcels are loaded by gravity from the bins into the receptacle, said sorting installation being characterized in that each sorting outlet is provided with a sorting receptacle transfer system designed to move a line of sorting receptacles in constant-size steps in a transfer direction extending transversely to the bin conveyor from the outside of the loop formed by the conveyor towards the inside of the loop formed by the bin conveyor, and in that the transfer system is designed to place a sorting receptacle in the loading position at a sorting outlet each time the line of sorting receptacles is moved by one step in the transfer direction.
Elastic constraint system for a pair of eyeglasses, comprising at least one inextensible flexible wire provided with two wire terminals to be engaged with two distinct portions of an eyeglasses front frame or temple bars, at least one of the wire terminals being provided with elastic means mounted preloaded and acting in opposition to a tensioning of said inextensible flexible wire, wherein the wire terminals of said wire couple with a front frame endpiece portion and with a temple bar, respectively, and characterised in that the wire runs through a plurality of mutually coupled vertebrae wherein said vertebrae are shaped as prismatic bodies provided with a front, convex, semi-cylindrical surface and with a rear, concave, semi-cylindrical surface, and wherein said wire runs through at least one hole or aperture provided in said vertebrae, said hole being off-centre with respect to a longitudinal reference plane running through the centres of said semi-cylindrical surfaces.
A method for making an anion exchange or chelant resin comprising the steps of: i) reacting a vinyl aromatic polymer with a nitro compound to form a polymer having a repeating unit comprising an aromatic ring substituted with a nitro group, wherein the nitro compound comprises from 1 to 12 carbon atoms with the proviso that the α carbon includes at least one hydrogen, and ii) reducing the nitro group to form an aliphatic amino group. i) reacting a vinyl aromatic polymer with a nitro compound to form a polymer having a repeating unit comprising an aromatic ring substituted with a nitro group, wherein the nitro compound comprises from 1 to 12 carbon atoms with the proviso that the α carbon includes at least one hydrogen, and ii) reducing the nitro group to form an aliphatic amino group.
An array substrate, comprising: signal lines, which includes a plurality of gate lines and a plurality of data lines intersecting with each other; and a plurality of pixel units defined by the gate lines and the data lines, wherein a thin film transistor, a common electrode and a pixel electrode, which is connected to a drain of the thin film transistor, are formed in each of the pixel units, for each of the pixel units, at the positions of two corners which are adjacent to one of the data lines, a first repair area and a second repair area are formed, respectively; within the first repair area and the second repair area, patterns of the pixel electrode and the data line overlap, and there is no pattern of the common electrode, characterized in that: for the pixel unit, at the position of one corner which is adjacent to one of the gate lines connected to the thin film transistor of the pixel unit and is not the place where the thin film transistor is located, a third repair area is formed; within the third repair area, patterns for the pixel electrode and the gate line overlap, and there is no pattern of the common electrode. signal lines, which includes a plurality of gate lines and a plurality of data lines intersecting with each other; and a plurality of pixel units defined by the gate lines and the data lines, wherein a thin film transistor, a common electrode and a pixel electrode, which is connected to a drain of the thin film transistor, are formed in each of the pixel units, for each of the pixel units, at the positions of two corners which are adjacent to one of the data lines, a first repair area and a second repair area are formed, respectively; within the first repair area and the second repair area, patterns of the pixel electrode and the data line overlap, and there is no pattern of the common electrode, for the pixel unit, at the position of one corner which is adjacent to one of the gate lines connected to the thin film transistor of the pixel unit and is not the place where the thin film transistor is located, a third repair area is formed; within the third repair area, patterns for the pixel electrode and the gate line overlap, and there is no pattern of the common electrode.
An impact mill comprising a base portion upon which is disposed a rotor rotatably mounted in a bearing housing, said rotor having an upwardly aligned conical surface portion coaxial with the rotational axis, said impact mill provided with a mill casing within which is located a conical grinding track assembly which surrounds said rotor to form a conical grinding path, said mill casing having a downwardly aligned cylindrical collar which may be axially adjusted to set a grinding gap between said rotor and said mill casing characterized in that said conical grinding track assembly is formed of separate conical grinding track sections (26, 27, 28) and in that said separate conical sections (26, 27, 28) are interlocked to form a grinding track assembly and in that said separate conical sections (26, 27, 28) are interlocking mating frustum cones.
A method of wireless communication, comprising: receiving a downlink, DL, control message using shared radio frequency spectrum band; identifying a format of downlink control information, DCI, of the DL control message; identifying a control channel type of the DL control message from a plurality of control channel types, the plurality of control channel types comprising a first control channel type and a second control channel type; determining a function of the DL control message based at least in part on the identified format of the DCI, wherein the function of the DL control message comprises at least one of an uplink transmission trigger or a frame structure indication; determining an uplink, LTL, transmission based at least in part on the function of the DL control message; determining a starting time for the determined UL transmission based at least in part on the control channel type, wherein the first control channel type corresponds to the starting time being a first starting time at a first time resource and the second control channel type corresponds to the starting time being a second starting time at a second time resource; and transmitting the UL transmission at the determined starting time. receiving a downlink, DL, control message using shared radio frequency spectrum band; identifying a format of downlink control information, DCI, of the DL control message; identifying a control channel type of the DL control message from a plurality of control channel types, the plurality of control channel types comprising a first control channel type and a second control channel type; determining a function of the DL control message based at least in part on the identified format of the DCI, wherein the function of the DL control message comprises at least one of an uplink transmission trigger or a frame structure indication; determining an uplink, LTL, transmission based at least in part on the function of the DL control message; determining a starting time for the determined UL transmission based at least in part on the control channel type, wherein the first control channel type corresponds to the starting time being a first starting time at a first time resource and the second control channel type corresponds to the starting time being a second starting time at a second time resource; and transmitting the UL transmission at the determined starting time.
A flap assembly for a vehicle cup holder, comprising: a flap housing adapted to be disposed on a side of a container receiver of a cup holder body and having a flap entrance, rotation guide holes on both upper sides and linear guide holes on both lower sides; a flap installed into the flap entrance of the flap housing and having support protrusion parts, rotational support protrusions inserted into the rotation guide holes, and linear support protrusions inserted into the linear guide holes; and a flap spring disposed between the flap housing and the flap and configured to resiliently support the flap characterized in that the flap has an upper support protrusion part and a lower support protrusion part for contacting a container at two points, and the rotation guide holes and the linear guide holes are arranged such that by mounting a container into the container receiver, the upper portion of the flap is pushed downwardly by the container, causing the flap to rotate in one direction centered at the rotational support protrusion and causing the linear support protrusions to move toward the inside of the flap housing along the linear guide holes, and by pushing the container further down, the rotational support protrusions move toward the inside of the flap housing along the rotation guide holes, causing the flap to rotate in the opposite direction, with regard to the one direction, centered at the linear support protrusion, whereby the two support protrusion parts push the container to thereby hold the container in place. a flap housing adapted to be disposed on a side of a container receiver of a cup holder body and having a flap entrance, rotation guide holes on both upper sides and linear guide holes on both lower sides; a flap installed into the flap entrance of the flap housing and having support protrusion parts, rotational support protrusions inserted into the rotation guide holes, and linear support protrusions inserted into the linear guide holes; and a flap spring disposed between the flap housing and the flap and configured to resiliently support the flap
A synthesis system for producing a functionalized olefinic-based polymer comprising: (i) a polymerization zone for producing an olefinic-based polymer, said polymerization zone comprising a mixing section, a deliquifying section, and a quenching section, wherein at least one section of the polymerization zone has a defined cross-sectional area that continually decreases from a first end to a second end of said section; (ii) a devolatilization zone comprising a kneader or extruder, wherein said devolatilization zone is downstream of said polymerization zone and in fluid communication with said polymerization zone; and (iii) a functionalization zone downstream of said devolatilization zone and in fluid communication with said devolatilization zone. (i) a polymerization zone for producing an olefinic-based polymer, said polymerization zone comprising a mixing section, a deliquifying section, and a quenching section, wherein at least one section of the polymerization zone has a defined cross-sectional area that continually decreases from a first end to a second end of said section; (ii) a devolatilization zone comprising a kneader or extruder, wherein said devolatilization zone is downstream of said polymerization zone and in fluid communication with said polymerization zone; and (iii) a functionalization zone downstream of said devolatilization zone and in fluid communication with said devolatilization zone.