mhurhangee/ep-ind-claims huggingface dataset:
A machine for surface mining or road milling, the machine being arranged to remove material from a ground region (102, 302, 402) while moving along the ground region (102, 302, 402), and comprising: a ground engager for removing a portion of the material from the ground region (102, 302, 402); and a detecting system (110, 210) comprising at least one detector element (212, 412, 414) coupled to a component of the machine to move with the machine and arranged to detect at least one quantity associated with an electrical property of the ground region (102, 302, 402), the detecting system (110, 210) being arranged to provide composition information concerning a composition of at least one material layer (102a-d, 402a-b) in the ground region (102, 302, 402) and thickness information concerning a thickness of the at least one material layer (102a-d, 402a-b), wherein at least the detected at least one quantity associated with the electrical property is used to provide at least one of the composition information and the thickness information. a ground engager for removing a portion of the material from the ground region (102, 302, 402); and a detecting system (110, 210) comprising at least one detector element (212, 412, 414) coupled to a component of the machine to move with the machine and arranged to detect at least one quantity associated with an electrical property of the ground region (102, 302, 402), the detecting system (110, 210) being arranged to provide composition information concerning a composition of at least one material layer (102a-d, 402a-b) in the ground region (102, 302, 402) and thickness information concerning a thickness of the at least one material layer (102a-d, 402a-b), wherein at least the detected at least one quantity associated with the electrical property is used to provide at least one of the composition information and the thickness information.
Control device for a wiper device of a windscreen wiping apparatus, in particular of a motor vehicle, the control device being designed for controlling a cyclic oscillation capability of at least one wiping arm of the wiper device within a wiping angle (α) determined by two reversal positions (0, U), and the control device undertaking to adjust a desired profile of the wiping arm by means of an observer-based method, • there being stored in the control device a mathematical system model in which dynamic properties of the wiper device are formulated, and in which a load torque of the wiping arm is defined as a disturbance variable, • there being provided a state observer which determines an estimated current load torque of the wiping arm by means of the system model, characterized in that • the determined estimated load torque and changes in the same are evaluated at least shortly before the desired reversal positions (0, U), and on the basis of the evaluation the desired reversal position (0, U) is displaced either in the direction of a A-column or in the direction of the middle of a windscreen, an amount by which the displacement is undertaken being dependent on a working point at which the wiping arm is currently located. • there being stored in the control device a mathematical system model in which dynamic properties of the wiper device are formulated, and in which a load torque of the wiping arm is defined as a disturbance variable, • there being provided a state observer which determines an estimated current load torque of the wiping arm by means of the system model, characterized in that • the determined estimated load torque and changes in the same are evaluated at least shortly before the desired reversal positions (0, U), and on the basis of the evaluation the desired reversal position (0, U) is displaced either in the direction of a A-column or in the direction of the middle of a windscreen, an amount by which the displacement is undertaken being dependent on a working point at which the wiping arm is currently located.
System for managing and controlling the flight of at least one wing profile, in particular for wind generator, comprising at least one orientable lever adapted to deviate at least one tether connecting said wing profile to at least one ground station, said orientable lever comprising means adapted to orient said tether along a movement direction of said wing profile, said means comprising at least one idle pulley adapted to deviate said tether by orienting itself along said movement direction of said wing profile, said means comprising at least one servomechanism adapted to orient said idle pulley along said movement direction of said wing profile, characterized in that said servomechanism comprises a carrier structure adapted to rotate with respect to said orientable lever by means of at least one motored fifth wheel.
A device for heating a vapour forming 2. substance, the device comprising a compartment for receiving vapour forming substance in use the compartment 2. being divided into plural 2. regions (A, B, C, D); and a heater for heating tobacco 2. in the compartment in use to generate vapour therefrom, wherein the device further comprises means for controlling the heater such that a region (A, B, C, D) adjacent to the heater 2. can be selectively heated and so that vapour from that selectively heated region 2. (A, B, C, D) passes out from the device during operation of the heater, wherein the heater extends in the longitudinal direction of the compartment; the device further comprising: means for generating relative motion between the heater 2. and the regions 2. (A, B, C, D) such that a region (A, B, C, D) can be placed adjacent to the heater to be selectively heated and so that vapour from that selectively heated region 2. (A, B, C, D) passes out from the device during operation of the heater.
A method of wireless communication, comprising: determining (910, 1010), by a base station, a signal configuration for transmitting a tracking reference signal, TRS, to a user equipment, UE, wherein the signal configuration identifies a subset of locations, of a set of locations included in a transmission window, that is to be used to transmit the TRS, wherein the transmission window is a predetermined window comprising multiple slots during which the base station may transmit a TRS, and wherein the signal configuration is selected to assist the UE with one or more measurements; transmitting (915, 1020), by the base station and based on the signal configuration, the TRS in the subset of locations; characterized by: determining, by the base station, an additional signal configuration for transmitting an additional TRS to the UE, wherein the additional signal configuration identifies an additional subset of locations, of the set of locations included in the transmission window, that is to be used to transmit the additional TRS; transmitting control signaling information that identifies the additional subset of locations; and transmitting, by the base station, the additional TRS based on the additional signal configuration, wherein the additional TRS is transmitted in the additional subset of locations. determining (910, 1010), by a base station, a signal configuration for transmitting a tracking reference signal, TRS, to a user equipment, UE, wherein the signal configuration identifies a subset of locations, of a set of locations included in a transmission window, that is to be used to transmit the TRS, wherein the transmission window is a predetermined window comprising multiple slots during which the base station may transmit a TRS, and wherein the signal configuration is selected to assist the UE with one or more measurements; transmitting (915, 1020), by the base station and based on the signal configuration, the TRS in the subset of locations; characterized by: determining, by the base station, an additional signal configuration for transmitting an additional TRS to the UE, wherein the additional signal configuration identifies an additional subset of locations, of the set of locations included in the transmission window, that is to be used to transmit the additional TRS; transmitting control signaling information that identifies the additional subset of locations; and transmitting, by the base station, the additional TRS based on the additional signal configuration, wherein the additional TRS is transmitted in the additional subset of locations. determining, by the base station, an additional signal configuration for transmitting an additional TRS to the UE, wherein the additional signal configuration identifies an additional subset of locations, of the set of locations included in the transmission window, that is to be used to transmit the additional TRS; transmitting control signaling information that identifies the additional subset of locations; and transmitting, by the base station, the additional TRS based on the additional signal configuration, wherein the additional TRS is transmitted in the additional subset of locations.
A device including: - a main antenna suitable for capturing and transmitting a radio frequency signal called RF signal, - at least one chip containing information and configured for transmitting this information via the main antenna in response to an excitation of an external RF signal, - a mechanism for activating and deactivating the main antenna; - a detection circuit for detecting the presence of an external RF signal, and - an indicator circuit, connected to the detection circuit, so as to indicate said presence, characterised in that the activation and deactivation mechanism and the detection circuit are arranged so that the activation and deactivation mechanism only activates the main antenna on the double condition that it receives an activation instruction from the user and that the detection circuit reports the presence of an RF signal. - a main antenna suitable for capturing and transmitting a radio frequency signal called RF signal, - at least one chip containing information and configured for transmitting this information via the main antenna in response to an excitation of an external RF signal, - a mechanism for activating and deactivating the main antenna; - a detection circuit for detecting the presence of an external RF signal, and - an indicator circuit, connected to the detection circuit, so as to indicate said presence,
A slurry for chemical mechanical polishing, comprising abrasive grain (a), compound (b) having an amino group having a pKa of more than 9, and not less than 3 hydroxyl groups, and water, wherein the abrasive grain (a) is at least one selected from the group consisting of cerium oxide, manganese oxide, titanium oxide, magnesium oxide, zirconium oxide and tantalum oxide, and the compound (b) has a molecular weight of 100 - 1000.
A method for separation of fatty acid or an alkali metal, ammonium or amine salt thereof from a mixture comprising fatty acid, the corresponding acyl lactylate and lactic acid or an alkali metal, ammonium or amine salt of these compounds, said method comprising the steps of: a) providing a dispersion of said mixture in a polar carrier; b) adjusting the dispersion mixture to a pH of from 5 to 9; and, c) extracting the fatty acid or the alkali metal, ammonium or amine salt thereof from the dispersion carrier mixture into a solvent immiscible with said polar carrier, thereby obtaining a fatty acid solution, wherein said polar carrier comprises, by weight of said carrier, from 70 to 100 wt.% of water and from 0 to 30 wt.% of one or more miscible, polar co-solvents. a) providing a dispersion of said mixture in a polar carrier; b) adjusting the dispersion mixture to a pH of from 5 to 9; and, c) extracting the fatty acid or the alkali metal, ammonium or amine salt thereof from the dispersion carrier mixture into a solvent immiscible with said polar carrier, thereby obtaining a fatty acid solution,
A replication deficient oncolytic viral vector or replication capable oncolytic virus comprising: a first transgene encoding an anti-CD3 antibody or a binding fragment thereof and a transmembrane domain or a GPI anchor, for expression on the surface of a cancer cell for in vivo stimulation of T cells, and at least one further transgene which encodes an immunomodulator which is a membrane associated protein ligand for an immune cell surface receptor selected from CD80, CD86 and combinations thereof, wherein a sequence encoding a 2A peptide links said genes, wherein the transgenes are in a cassette encoded as a polycistronic mRNA, and wherein the virus is not an adenovirus. at least one further transgene which encodes an immunomodulator which is a membrane associated protein ligand for an immune cell surface receptor selected from CD80, CD86 and combinations thereof, wherein a sequence encoding a 2A peptide links said genes, wherein the transgenes are in a cassette encoded as a polycistronic mRNA, and wherein the virus is not an adenovirus.
A stainless-steel tee-pipe moulding process, comprising the following steps: S1: taking a stainless-steel pipe as a processing raw material and cutting out a main pipe and a secondary pipe from said stainless-steel pipe; S2: carrying out water swelling treatment on the bodies of the main pipe and secondary pipe with a swelling apparatus; or necking two ports of the main pipe and one port of the secondary pipe with a necking apparatus; S3: carrying out thread treatment on the two ports of the main pipe and on one port of the secondary pipe with a thread forming apparatus to form connecting threads; S4: forming a T-branch port on the body of the main pipe obtained after treatment in step S3, meanwhile, cutting the other port of the secondary pipe to obtain a docking port matched with the T-branch port, and then welding the docking port of the secondary pipe with the T-branch port of the body of the main pipe to form a tee-pipe blank; and S5: carrying out surface electroplating on the tee-pipe blank obtained after treatment in step S4 to form a tee-pipe end product. S1: taking a stainless-steel pipe as a processing raw material and cutting out a main pipe and a secondary pipe from said stainless-steel pipe; S2: carrying out water swelling treatment on the bodies of the main pipe and secondary pipe with a swelling apparatus; or necking two ports of the main pipe and one port of the secondary pipe with a necking apparatus; S3: carrying out thread treatment on the two ports of the main pipe and on one port of the secondary pipe with a thread forming apparatus to form connecting threads; S4: forming a T-branch port on the body of the main pipe obtained after treatment in step S3, meanwhile, cutting the other port of the secondary pipe to obtain a docking port matched with the T-branch port, and then welding the docking port of the secondary pipe with the T-branch port of the body of the main pipe to form a tee-pipe blank; and S5: carrying out surface electroplating on the tee-pipe blank obtained after treatment in step S4 to form a tee-pipe end product.
A method of manufacturing a compound represented by Formula: wherein R 1 represents a C 1-6 linear or branched alkyl group that may be substituted by a C 6-10 aryl group, a C 2-6 linear or branched alkenyl group that may be substituted by a C 6-10 aryl group, a C 2-6 linear or branched alkynyl group that may be substituted by a C 6-10 aryl group, or a C 6-10 aryl group, and each R 1 may be the same or different, R 2 represents a hydrogen atom, or a C 1-6 linear or branched alkyl group that may be substituted by a C 6-10 aryl group, and R 3 represents a C 1-6 linear or branched alkyl group, a C 6-10 aryl group, or a halogen atom, by reacting a compound represented by Formula: (R 1 O) 3 P wherein R 1 is as described above, with a compound represented by Formula: wherein X represents a halogen atom, and R 2 and R 3 are as described above, followed by performing a treatment using an acid or base, wherein the acid is used as solution.
Deodorant skin care composition comprising an oil-based carrier, zinc oxide, porous particles that comprise metallic silver, wherein the zinc oxide is present in an amount of 5 to 25 wt% based on the total weight of the deodorant skin care composition.
Method of producing a structural element extending along a longitudinal axis over a certain length and consisting of at least two thin plates joined by rows of spaced apart spacer bars interposed between two adjacent plates (101, 102) and fixed respectively on their facing faces (13, 14), so as to form an interdependent assembly capable of resting on two spaced apart support (A1, A2), characterized by the fact that a first plate cut into a desired shape for the element, with two longitudinal sides and two transverse sides, is applied and fixed, by an internal face, on a first series of spacers distributed on a flat support, that the whole of this plate provided with spacers on its inner face, is turned over and applied, by its opposite smooth outer face, on an application face of a rigid support, that a second assembly comprising a second plate provided with a second series of spacers is made in the same way on the flat support and then turned over, applied and fixed on the first series of spacers of the first plate while taking the form of the rigid support, and so on until the installation and fixing on a last series of spacers of an external closing plate not equipped with spacers, in order to make an element which is then removed from the rigid support while keeping its shape, a method in which the various plates (101, 102... 104) thus assembled are cut in such a way as to have a same external profile with two longitudinal sides (16, 16') having a desired profile, and said longitudinal sides (16, 16') are aligned, during the assembly of the plates, along two lateral faces (17, 17') and, when the element thus made is placed, the plates (101, 102...) of the latter are arranged vertically and rest on edge on the supports (A1, A2), so that the element has two faces, respectively lower and upper with a desired profile, the number of plates, their thickness and the thickness of the spacers being determined in such a way as to give the element the desired strength, while limiting its own weight.
A jig (100; 100') for forming a truss (10; 10'), which comprises interconnected elongate members (3, 5, 6) and is to be part of a building structure, the jig comprising a support structure (112, 114, 120; 140, 141) on which the members can be arranged, and stops (123, 124, 180; 124') adapted to abut, at predetermined positions, ones of the members so arranged and thus to hold the members fixed for interconnection, the jig being configured with at least one guide (124; 124') adapted to guide a rotating drill bit such that a hole in the truss drilled by the bit is correctly positioned, characterised in that the or each guide (124; 124') comprises a body and a passage (125; 125') through the body to guide the drill bit axially therein, wherein the or each body is defined by a said stop (124; 124').
A computing system comprising: image receiving logic configured to receive image data indicative of an image of a field; ground identification logic configured to identify a first image portion of the image representing ground in the field; image segmentation logic configured to identify a remaining image portion representing non-ground in the field that omits the first image portion from the image; crop classification logic configured to: apply a crop classifier to the remaining image portion; and identify a second image portion of the image that represents locations of crop plants in the field; the computer system being characterized in that the image segmentation logic is configured to obtain a third image portion that omits the first and second image portions from the image; weed identification logic is configured to identify locations of weed plants in the field based on the third image portion; and control signal generation logic is configured to generate a machine control signal based on the identified locations of the weed plants. image receiving logic configured to receive image data indicative of an image of a field; ground identification logic configured to identify a first image portion of the image representing ground in the field; image segmentation logic configured to identify a remaining image portion representing non-ground in the field that omits the first image portion from the image; crop classification logic configured to: apply a crop classifier to the remaining image portion; and identify a second image portion of the image that represents locations of crop plants in the field; apply a crop classifier to the remaining image portion; and identify a second image portion of the image that represents locations of crop plants in the field; the computer system being characterized in that the image segmentation logic is configured to obtain a third image portion that omits the first and second image portions from the image; weed identification logic is configured to identify locations of weed plants in the field based on the third image portion; and control signal generation logic is configured to generate a machine control signal based on the identified locations of the weed plants.
Installation for forming a fibre mat, in particular a non-woven mat, comprising a fibre web-forming device, for example a card, a cross-lapper and, disposed between the web-forming device and the cross-lapper, a drafting device for drafting, in particular time-varying drafting, in particular periodic, the fibre web or webs to adjust a desired predetermined profile of the fibre mat leaving the cross-lapper, the web-forming device comprising at least one output belt (1; 2) for at least one web (5; 6), preferably two output belts (1, 2) for two respectively upper and lower webs (5, 6); the cross-lapper having one input belt to receive the web(s) leaving the output belt(s) of the web-forming device, characterised in that the arrangement is such that the path of the web or of the webs, preferably of the upper and lower webs, between the output belt or belts of the web-forming device, in particular the card, and the cross-lapper input belt includes at least one inflexion point (11; 12).