mhurhangee/ep-ind-claims huggingface dataset:
A particulate mixture for use in the control of rodents which comprises a mixture of a plurality of bait particles and a plurality of non-bait particles, wherein each bait particle comprises matter edible by a rodent and a rodenticide and wherein each non-bait particle comprises matter edible by a rodent and has a flavour different from the flavour of a bait particle and wherein the non-bait particles are distinguished from the bait particles by at least one physical characteristic selected from size, shape, surface texture and internal texture, wherein the non-bait particles are present in the mixture in an amount in the range of from 2.5 to 10% by weight, preferably in the range of from 3 to 7% by weight, based on the combined weight of the bait particles and non-bait particles, wherein the non-bait particles are extruded pellets comprising ground cereals, wherein the non-bait particles contain from 5 to 4000 ppm of flavouring agent, wherein the bait particles are cereal based, typically selected from whole wheat grain, cut wheat grain, oats, canary seed and cereal based pellets treated with a rodenticide.
A method for classifying powder using a fluid classifier, the method comprising: a mixing step of mixing a powder with an auxiliary agent made of an alcohol (step S10; step S30); a feeding step of feeding the powder mixed at the mixing step into the fluid classifier (step S22; step S44); a heating step of heating a gas (step S14; step S36); a supplying step of supplying the gas heated at the heating step to the fluid classifier (step S16; step S38); and a classifying step of classifying the powder in the fluid classifier based on particle diameter (step S24; step S46), characterized in that at the classifying step, the powder is classified by way of a spinning air current generated in the fluid classifier. a mixing step of mixing a powder with an auxiliary agent made of an alcohol (step S10; step S30); a feeding step of feeding the powder mixed at the mixing step into the fluid classifier (step S22; step S44); a heating step of heating a gas (step S14; step S36); a supplying step of supplying the gas heated at the heating step to the fluid classifier (step S16; step S38); and a classifying step of classifying the powder in the fluid classifier based on particle diameter (step S24; step S46), characterized in that at the classifying step, the powder is classified by way of a spinning air current generated in the fluid classifier.
Coupling, in particular automatic coupling, for connecting a track-bound vehicle to a mating coupling of another track-bound vehicle, having a coupling head comprising a coupling closure for coupling to the mating coupling, characterized in that an identification device for identifying the coupling is arranged directly on the coupling, comprising an identification medium and a communication device for communicating with an identification device of the mating coupling and for communicating with a device that is associated with the coupling or non-coupling-related for capturing and processing data, the identification medium containing information intended to explicitly identify the coupling in the form of one of the identification numbers that is associated with the coupling and allocated only once. having a coupling head comprising a coupling closure for coupling to the mating coupling, characterized in that an identification device for identifying the coupling is arranged directly on the coupling, comprising an identification medium and a communication device for communicating with an identification device of the mating coupling and for communicating with a device that is associated with the coupling or non-coupling-related for capturing and processing data, the identification medium containing information intended to explicitly identify the coupling in the form of one of the identification numbers that is associated with the coupling and allocated only once.
An indoor unit of an air conditioner comprising: a main body; a heat exchanger disposed in the main body; an electronic expansion valve disposed in the main body and located at the outside in the lengthwise direction of the heat exchanger; a control unit controlling electrical components mounted in the main body; and a control case including a first side surface part disposed between the control unit and the electronic expansion valve, characterized in that the control case further includes an extension part connected with the first side surface part and extended in the direction of the heat exchanger, the indoor unit further comprises a water collector to receive condensed water formed around the electronic expansion valve, wherein the extension part includes a guide part downwardly inclined from the first side surface part toward the water collector and a water intake part upwardly inclined from the guide part. a main body; a heat exchanger disposed in the main body; an electronic expansion valve disposed in the main body and located at the outside in the lengthwise direction of the heat exchanger; a control unit controlling electrical components mounted in the main body; and a control case including a first side surface part disposed between the control unit and the electronic expansion valve, characterized in that the control case further includes an extension part connected with the first side surface part and extended in the direction of the heat exchanger, the indoor unit further comprises a water collector to receive condensed water formed around the electronic expansion valve, wherein the extension part includes a guide part downwardly inclined from the first side surface part toward the water collector and a water intake part upwardly inclined from the guide part.
Pump aggregate, comprising a unitary hollow cast body having a stator holding collar formed into a bearing-shield lateral wall being unitary with the cast body inner wall, an oil-submersible-electric motor secured by its stator in the stator-holding collar, at least one pump element (32, 22) attached at the bearing-shield lateral wall, which pump element (32, 22) is connected at a pressure side via a pressure medium transfer path with a connecting block provided in the wall of the hollow cast body, and cover lids (8, 9) secured at round sealing surfaces provided at the ends of the hollow cast body, the cover lids and the hollow cast body constituting an oil reservoir, characterized in that as at least one pressure medium transfer path at least one channel is formed by casting technology in the bearing-shield lateral wall of the hollow cast body, and that the at least one channel extends from the connecting block to a clamping surface (18, 18', 18") of the bearing-shield lateral wall, the clamping surface being machined for fixing either at least one radial piston-pump element or one gear pump element.
System for evaluation of current distribution in cathodes and anodes of a metal electrodeposition plant, the system comprising: - at least one electrolysis cell containing an electrolyte; - a current bus-bars associated with said at least one electrolysis cell; - a balance secondary bus-bar; - a multiplicity of cathodes and anodes surmounted by cathodic and anodic hanger bars of homogeneous resistivity and regular geometry in electrical contact therewith, said hanger bars having a first terminal part abutting said current bus-bar and a second terminal part abutting said balance secondary bus bar, said hanger bars being suitable for holding the corresponding cathodes and anodes in position inside said at least one electrolysis cell; wherein said cathodic and anodic hanger bars are equipped with at least one electrical probe connected with at least four contact detection points located on said cathodic and anodic hanger bars in the regions delimited by the electrical connections with the current and balance secondary bus-bar respectively and the first electrical connection with the corresponding cathode or anode. - at least one electrolysis cell containing an electrolyte; - a current bus-bars associated with said at least one electrolysis cell; - a balance secondary bus-bar; - a multiplicity of cathodes and anodes surmounted by cathodic and anodic hanger bars of homogeneous resistivity and regular geometry in electrical contact therewith, said hanger bars having a first terminal part abutting said current bus-bar and a second terminal part abutting said balance secondary bus bar, said hanger bars being suitable for holding the corresponding cathodes and anodes in position inside said at least one electrolysis cell;
An endoscope with an optical filter arrangement, which comprises in a holder multiple optical filters (134, 136, 138, 140) with different filter properties, and is arranged rotatably about an axis of rotation in at least one beam path of the endoscope in the direction of light incidence in or behind an objective of the endoscope and in front of an image capturing unit of the endoscope or an eyepiece of the endoscope, wherein the filter arrangement is designed to perform a change from a first filter property to a second filter property when the filter arrangement is rotated about the axis of rotation from a first target rotational position to a second target rotational position, wherein the filter arrangement has two, three or four flat optical filters (134, 136, 138, 140) which are held by the holder and are arranged rotated in relation to each other, wherein in the first target rotational position at least one of the flat optical filters (134, 138) with the first filter property and in the second target rotational position at least one other of the flat optical filters (136, 140) with the second filter property lies in the beam path, wherein the axis of rotation of the filter arrangement (30, 130) is oriented perpendicular to the at least one beam path of the endoscope, characterized in that the rotation of the filter arrangement is a rotation of the filter arrangement by 90° and the two, three or four flat optical filters (134, 136, 138, 140) are arranged rotated by 90° in relation to each other.
A thermoplastic article obtained by contacting a laminate comprising an upper first sheet material and a lower second sheet material with heat and pressure using a heated element which results in the simultaneous bonding of the sheet material; wherein the first and second sheet materials are formed from a copolyester having an inherent viscosity of 0.6 to 0.9 dL/g, when measured at 25° C using 0.50 grams of polymer per 100 mL of a solvent consisting of 60 weight percent phenol and 40 weight percent tetrachloroethane, wherein the diacid component comprises at least 80 mole percent terephthalic acid residues and up to 20 mole percent of one or more other dicarboxylic acid residues; and the diol component consists of residues of ethylene glycol and neopentyl glycol, wherein the mole ratio of ethylene glycol residues: neopentyl glycol residues is 50:50 to 77:23, wherein the upper sheet material has a thickness in the range of 0.38 to 12.70 mm.
A modified matrix protein of a vesicular stomatitis virus, characterized in that the modified M protein comprises an amino acid sequence selected from the group consisting of: (i) SEQ ID NO: 3 including the following substitutions: G21E/L111F/MS1R; and (ii) SEQ ID NO: 8 including the following substitutions: G22E/M48R/M51R. (i) SEQ ID NO: 3 including the following substitutions: G21E/L111F/MS1R; and (ii) SEQ ID NO: 8 including the following substitutions: G22E/M48R/M51R.
Cooling system, in particular for an internal combustion engine, comprising a cooling circuit for circulating a liquid coolant, and an expansion tank connected to the cooling circuit by means of an equalization pipe during operation, said expansion tank being arranged at least partially above the cooling circuit, wherein a filling pipe is provided for filling the cooling circuit, the filling pipe leading from a connection to a lower region of the cooling circuit, characterised in that the filling pipe can be blocked by an automatic blocking element (7, 9) which automatically blocks the filling pipe when a predetermined level in the expansion tank has been reached.
A method for a user equipment, UE, to transmit an uplink signal, the method comprising: starting, by a medium access control, MAC, layer module, a time alignment timer when a time alignment command is received; and transferring, by the MAC layer module, an uplink grant signal to a hybrid automatic repeat request, HARQ, entity at the UE when the time alignment timer is running upon receiving the uplink grant signal, wherein the uplink grant signal is ignored and not processed by the MAC layer module if the time alignment timer is not running when the uplink grant signal is received. starting, by a medium access control, MAC, layer module, a time alignment timer when a time alignment command is received; and transferring, by the MAC layer module, an uplink grant signal to a hybrid automatic repeat request, HARQ, entity at the UE when the time alignment timer is running upon receiving the uplink grant signal, wherein the uplink grant signal is ignored and not processed by the MAC layer module if the time alignment timer is not running when the uplink grant signal is received.
A banknote processing device, comprising a banknote temporary storage unit, wherein the banknote temporary storage unit comprises a box body, wherein the banknote temporary storage unit further comprises a controllable telescopic rod having one end configured to be fixed at a transaction port of the banknote processing device and a telescopic end articulated to the box body, and the box body is slidably arranged at the transaction port, and in the case that the controllable telescopic rod is at a terminal of a telescoping stroke of the controllable telescopic rod, the box body is located outside the transaction port, and a banknote dispensing space in the box body is in a visible area, wherein a first reversing unit is fixed at an outer side of the box body, and is articulated to an articulated shaft between the controllable telescopic rod and the box body.
Apparatus (1 - 4) for the production of a rotor blade belt for a rotor blade of a wind turbine with a shape (11 - 14), which comprises a recess (16- 19) forming a cavity at its cross section, in which material (7, 8) for a rotor blade belt is insertable or is inserted, and a flat shape cover to seal the recess (16 - 19), wherein the recess (16 - 19) comprises sidewalls, an opening bounded by the sidewalls and a floor area between the sidewalls, characterized in that the height of the sidewalls corresponds to a height of the sides of the roto blade belt, wherein at least one edge of the recess (16 - 19) comprises at least one detachable guide body.
Therapeutic system comprising: a MR imaging unit arranged to acquire MR signals from a body of a patient positioned in an examination volume, a thermal treatment unit (19, 20) for the deposition of thermal energy within tissue of the body, wherein the system is arranged to perform the steps of: a) initiating thermal treatment by heating the tissue of the body at the position of a focus within the examination volume, b) selective acquisition of MR signals from a first image plane, the position of the focus of the thermal treatment being located within the first image plane, c) reconstruction of a thermographic MR image from the MR signals acquired from the first image plane, d) computing a baseline thermographic MR image from the temperature distribution within at least one second image plane (25, 26, 27) being different from the first image plane, e) moving the focus of the thermal treatment to a new position within the examination volume, f) changing the position and/or orientation of the first image plane corresponding to the new position of the focus of the thermal treatment, g) repeating steps b) and c), wherein the baseline thermographic MR image computed in step d) is used for thermographic image reconstruction in subsequent step c). a MR imaging unit arranged to acquire MR signals from a body of a patient positioned in an examination volume, a thermal treatment unit (19, 20) for the deposition of thermal energy within tissue of the body, a) initiating thermal treatment by heating the tissue of the body at the position of a focus within the examination volume, b) selective acquisition of MR signals from a first image plane, the position of the focus of the thermal treatment being located c) reconstruction of a thermographic MR image from the MR signals acquired from the first image plane, d) computing a baseline thermographic MR image from the temperature distribution within at least one second image plane (25, 26, 27) being different from the first image plane, e) moving the focus of the thermal treatment to a new position within the examination volume, f) changing the position and/or orientation of the first image plane corresponding to the new position of the focus of the thermal treatment, g) repeating steps b) and c), wherein the baseline thermographic MR image computed in step d) is used for thermographic image reconstruction in subsequent step c).
A satellite assembly, comprising a reflector satellite comprising at least one curved reflection surface adapted to reflect electromagnetic radiation, and at least one supporting structure of said curved reflection surface, the supporting structure connecting at least four positioning and orientation systems of the reflector satellite to each other to carry out attitude and orbit control, said positioning and orientation systems each comprising at least one propulsion system, said positioning and orientation systems being synchronised and disposed so as to allow orientation of the reflector satellite along at least two axes of rotation, the satellite assembly further comprising at least one other satellite called source satellite comprising at least one radio frequency source, the reflector satellite and said source satellite being distant and servo-controlled in position relative to each other so that said reflection surface collaborates with said radio frequency source to constitute an emitter and/or receiver system capable of emitting and/or receiving radiofrequency radiation to and/or from the earth, and wherein the source satellite comprises: - an array of sources and - a sub-reflector, or first and second sub-reflectors, positioned such that a beam emitted by the array of sources is reflected by the first sub-reflector towards the second sub-reflector, then reflected by the second sub-reflector towards the reflection surface of the source satellite, so that the assembly consisting of the reflection surface, the source array and the sub-reflector or the first and second sub-reflectors constitutes an antenna capable of emitting or receiving radiofrequency radiation to or from the Earth. the satellite assembly further comprising at least one other satellite called source satellite comprising at least one radio frequency source, the reflector satellite and said source satellite being distant and servo-controlled in position relative to each other so that said reflection surface collaborates with said radio frequency source to constitute an emitter and/or receiver system capable of emitting and/or receiving radiofrequency radiation to and/or from the earth, and wherein the source satellite comprises: - an array of sources and - a sub-reflector, or first and second sub-reflectors, positioned such that a beam emitted by the array of sources is reflected by the first sub-reflector towards the second sub-reflector, then reflected by the second sub-reflector towards the reflection surface of the source satellite, - an array of sources and - a sub-reflector, or first and second sub-reflectors, positioned such that a beam emitted by the array of sources is reflected by the first sub-reflector towards the second sub-reflector, then reflected by the second sub-reflector towards the reflection surface of the source satellite, so that the assembly consisting of the reflection surface, the source array and the sub-reflector or the first and second sub-reflectors constitutes an antenna capable of emitting or receiving radiofrequency radiation to or from the Earth.
A method for determining a tag's position in a given area, comprising: - performing, by a tag reader (120, 130, 300), a standard inventory process to obtain a unique identification code for a first tag (112, 118, 200) in a randomly selected timeslot; - assigning, by the tag reader (120, 130, 300), a local short address to the first tag (112, 118, 200) that is shorter than the unique identification code; - wirelessly communicating the local short address from the tag reader (120, 130, 300) to the first tag (112, 118, 200); - performing, by the tag reader (120, 130, 300), an enhanced inventory process comprising the following communication operations: - communicating a ping command from the tag reader (120, 130, 300) that includes instructions for the first tag (112, 118, 200) to send a ping command response signal during an assigned timeslot of a plurality of contiguous timeslots; and - receiving the ping command response signal including the local short address from the first tag (112, 118, 200) in the assigned timeslot; - determining a first position of the first tag (112, 118, 200) in the given area based on the phase of the ping command response signal; and - repeating the enhanced inventory process by the tag reader (120, 130, 300) to determine at least one second position of the first tag (112, 118, 200) in the given area. - performing, by a tag reader (120, 130, 300), a standard inventory process to obtain a unique identification code for a first tag (112, 118, 200) in a randomly selected timeslot; - assigning, by the tag reader (120, 130, 300), a local short address to the first tag (112, 118, 200) that is shorter than the unique identification code; - wirelessly communicating the local short address from the tag reader (120, 130, 300) to the first tag (112, 118, 200); - performing, by the tag reader (120, 130, 300), an enhanced inventory process comprising the following communication operations: - communicating a ping command from the tag reader (120, 130, 300) that includes instructions for the first tag (112, 118, 200) to send a ping command response signal during an assigned timeslot of a plurality of contiguous timeslots; and - receiving the ping command response signal including the local short address from the first tag (112, 118, 200) in the assigned timeslot; - communicating a ping command from the tag reader (120, 130, 300) that includes instructions for the first tag (112, 118, 200) to send a ping command response signal during an assigned timeslot of a plurality of contiguous timeslots; and - receiving the ping command response signal including the local short address from the first tag (112, 118, 200) in the assigned timeslot; - determining a first position of the first tag (112, 118, 200) in the given area based on the phase of the ping command response signal; and - repeating the enhanced inventory process by the tag reader (120, 130, 300) to determine at least one second position of the first tag (112, 118, 200) in the given area.