mhurhangee/ep-ind-claims huggingface dataset:
Feed distribution system for feeding poultry, comprising: - a feed storage; - at least one conveyor line with a number of mutually spaced outlets; - a number of feeding devices each having a dish-shaped dispensing pan and a feed drop tube opening out above a central part of the pan; and - transportation means for transporting feed out of the storage via the conveyor line towards the respective feeding devices, in which each feeding device is attached to the conveyor line with an inlet of its drop tube positioned below one of the outlets, and in which each feeding device has an attachment part that is rotatable around a longitudinal axis of the conveyor line, characterized in that, the attachment part is separate from the drop tube, with the drop tube being hingedly connected by means of a hinge connection to the attachment part, wherein the attachment part together with the hinge connection to the drop tube is rotatable around the conveyor line between a feeding and a cleaning position, with the inlet of the drop tube getting distanced from the outlet of the conveyor line when the attachment part together with the hinge connection to the drop tube is rotated from the feeding position to the cleaning position. - a feed storage; - at least one conveyor line with a number of mutually spaced outlets; - a number of feeding devices each having a dish-shaped dispensing pan and a feed drop tube opening out above a central part of the pan; and - transportation means for transporting feed out of the storage via the conveyor line towards the respective feeding devices,
An organic material represented by General Formula: where, in General Formula, R 1 is an alkyl group having 6 carbon atoms or more but 20 carbon atoms or less; n is an integer of from 1 through 3; X1 to X4 are each a hydrogen atom or a fluorine atom; and Z is a compound represented by General Formula,, or below: where, in General Formulae to, R 2, R 3, and R 4 are each an alkyl group having 6 carbon atoms or more but 20 carbon atoms or less; and Y is an oxygen atom or a sulfur atom.
A method of preparing a MnBi-based sintered magnet comprising MnBi phase particles, the method comprising: (a) preparing a non-magnetic phase MnBi-based alloy; (b) subjecting the non-magnetic phase MnBi-based alloy to heat treatment to convert into a magnetic phase MnBi-based alloy; (c) pulverizing the magnetic phase alloy to prepare a MnBi hard magnetic phase powder; (d) mixing the MnBi hard magnetic phase powders with a Sn powder; (e) molding the mixture in magnetic field applying external magnetic field; and (f) sintering the molded product, wherein the non-magnetic phase MnBi-based alloy is prepared in the step (a) by a rapidly solidification process in which a wheel speed is 55 to 75 m/s, wherein the heat treatment is performed in the step (b) at a temperature of 280 to 340°C and for 2 to 5 hours, wherein the MnBi-based alloy prepared in the step (a) has a crystal grain size of 50 to 100 nm, characterized in that the MnBi-based sintered magnet comprises MnBi phase particles as a main phase and Sn in the interface between particles, wherein MnBi has a composition which is represented by Mn x Bi 100-x, wherein x is 50 to 55, wherein the MnBi is included in an amount of 55 to 99.9 wt% with respect to the total weight of the MnBi-based sintered magnet, and wherein Sn is included in an amount of more than 0 and up to 10 wt% with respect to the total weight of the MnBi-based sintered magnet. (a) preparing a non-magnetic phase MnBi-based alloy; (b) subjecting the non-magnetic phase MnBi-based alloy to heat treatment to convert into a magnetic phase MnBi-based alloy; (c) pulverizing the magnetic phase alloy to prepare a MnBi hard magnetic phase powder; (d) mixing the MnBi hard magnetic phase powders with a Sn powder; (e) molding the mixture in magnetic field applying external magnetic field; and (f) sintering the molded product, wherein the non-magnetic phase MnBi-based alloy is prepared in the step (a) by a rapidly solidification process in which a wheel speed is 55 to 75 m/s, wherein the heat treatment is performed in the step (b) at a temperature of 280 to 340°C and for 2 to 5 hours, wherein the MnBi-based alloy prepared in the step (a) has a crystal grain size of 50 to 100 nm, characterized in that the MnBi-based sintered magnet comprises MnBi phase particles as a main phase and Sn in the interface between particles, wherein MnBi has a composition which is represented by Mn x Bi 100-x, wherein x is 50 to 55, wherein the MnBi is included in an amount of 55 to 99.9 wt% with respect to the total weight of the MnBi-based sintered magnet, and wherein Sn is included in an amount of more than 0 and up to 10 wt% with respect to the total weight of the MnBi-based sintered magnet.
A side wall (132, 134) of a movable part of an excavator bucket, comprising: a one-piece sheet metal base including an attachment portion for attaching the side wall (132, 134) to a rear wall of the excavator bucket, wherein the sheet metal base includes a cranked portion extending outwards from the attachment portion, and an extension portion extending from the cranked portion to a distal end of the sheet metal base. a one-piece sheet metal base including an attachment portion for attaching the side wall (132, 134) to a rear wall of the excavator bucket, wherein the sheet metal base includes a cranked portion extending outwards from the attachment portion, and an extension portion extending from the cranked portion to a distal end of the sheet metal base.
A management system having an equipment to which a dynamic address is dynamically assigned and a control apparatus configured to perform communication with the equipment via a predetermined network using the dynamic address assigned to the equipment, wherein the equipment comprises a transmission unit configured to repeatedly transmit a classification message via the predetermined network using the dynamic address assigned to the equipment as a source address of the classification message over a predetermined period (T total) when the equipment is powered on, the classification message including a classification of the equipment; and the control apparatus comprises a reception unit configured to receive the classification message and a control unit configured to acquire the dynamic address assigned to the equipment based on the source address of the classification message.
A marine electromagnetic sensor cable, comprising: a plurality of sensor modules disposed at spaced apart locations along a cable, each module including at least one pair of electrodes associated therewith, the electrodes arranged to measure electric field in a direction along the direction of the cable; and characterised in that the cable is arranged to form a closed pattern such that the electrodes are disposed in the closed pattern; wherein each module further comprises at least one laterally extending sensor arm (22B, 42) affixed to the module, the at least one sensor arm (22B, 42) including at least one electrode thereon. a plurality of sensor modules disposed at spaced apart locations along a cable, each module including at least one pair of electrodes associated therewith, the electrodes arranged to measure electric field in a direction along the direction of the cable; and characterised in that the cable is arranged to form a closed pattern such that the electrodes are disposed in the closed pattern; wherein each module further comprises at least one laterally extending sensor arm (22B, 42) affixed to the module, the at least one sensor arm (22B, 42) including at least one electrode thereon.
A composition comprising a CRISPR-Cas system for use in the treatment of a post-mitotic cell disorder selected from Table A or Table B; wherein said CRISPR-Cas system comprises a CRISPR enzyme comprising at least one or more nuclear localization sequences; a guide sequence capable of hybridizing to a target sequence in a post-mitotic eukaryotic cell; a tracr mate sequence; and a tracr sequence; or one or more polynucleotides encoding said CRISPR enzyme, said guide sequence, said tracr mate sequence, and said tracr sequence.
An embossing apparatus for embossing structures onto security documents, wherein the embossing apparatus comprises an embossing head, an embossing stamp and an embossing anvil and the embossing stamp is movable between the embossing head and the embossing anvil, characterized by a pressure-controlled drive means for driving the embossing head by means of embossing forces regulated by a pressure control valve, and a pressure switch for starting the embossing time.
Pharmaceutical composition comprising an analgesic as the active pharmaceutical ingredient and a pharmaceutically acceptable carrier, wherein the analgesic is selected from phenytoin and/or a salt thereof, or any combination thereof, for use in the treatment of peripheral neuropathic pain, wherein said use is the topical use in the treatment of peripheral neuropathic pain.
A vacuum adiabatic body comprising: a first plate configured to define at least a portion of a wall for a first space; a second plate configured to define at least a portion of a wall for a second space having a temperature different from that of the first space; a third space provided between the first plate and the second plate and configured to be a vacuum space; a support configured to maintain the third space; a heat resistance unit configured to reduce a heat transfer amount between the first plate and the second plate; an electric line passing through a first opening of the first plate member and a second opening of the second plate member to allow current to flow between the first space and the second space; and a through sealing part configured to accommodate the electric line therein, the through sealing part being configured to seal the first and the second openings so as to prevent cold air from being conducted between the first space and the second space; a sealing member configured to accommodate the electric line; characterized in that: the sealing member is configured to be withdrawn to an outside of the vacuum adiabatic body by passing through the second plate, wherein an inner surface of the second plate and an outer surface of the sealing member are welded to each other. a first plate configured to define at least a portion of a wall for a first space; a second plate configured to define at least a portion of a wall for a second space having a temperature different from that of the first space; a third space provided between the first plate and the second plate and configured to be a vacuum space; a support configured to maintain the third space; a heat resistance unit configured to reduce a heat transfer amount between the first plate and the second plate; an electric line passing through a first opening of the first plate member and a second opening of the second plate member to allow current to flow between the first space and the second space; and a through sealing part configured to accommodate the electric line therein, the through sealing part being configured to seal the first and the second openings so as to prevent cold air from being conducted between the first space and the second space; a sealing member configured to accommodate the electric line; characterized in that: the sealing member is configured to be withdrawn to an outside of the vacuum adiabatic body by passing through the second plate, wherein an inner surface of the second plate and an outer surface of the sealing member are welded to each other.
A method for producing a composite consisting of porous carbon and sulfur-containing active material, said method comprising the following method steps: (a) providing powder of porous carbon, (b) preparing a dispersion of the carbon powder, the sulfur-containing active material and an aqueous medium, (c) performing a hydrothermal treatment of the dispersion at a temperature sufficient for melting sulfur, so as to form of a liquid phase containing sulfur melt and water, and to cause infiltration of pores of the porous carbon with the liquid phase; (d) removing the water and insulating the composite. (a) providing powder of porous carbon, (b) preparing a dispersion of the carbon powder, the sulfur-containing active material and an aqueous medium, (c) performing a hydrothermal treatment of the dispersion at a temperature sufficient for melting sulfur, so as to form of a liquid phase containing sulfur melt and water, and to cause infiltration of pores of the porous carbon with the liquid phase; (d) removing the water and insulating the composite.
A device for determining the volume flow of liquid gas discharged by a liquid gas line, comprising a measuring line portion that can be connected to the liquid gas line via a connection valve having a variable opening cross-section, and comprising a measuring apparatus that is arranged on the measuring line portion and that determines the volume flow of liquid gas flowing through the measuring line portion, characterized by a control apparatus to which measurement data of the measuring apparatus are applied, wherein the control apparatus is designed to issue a warning signal and/or to stop the discharge of liquid gas if the volume flow of liquid gas determined by means of the measuring apparatus falls below a minimum volume flow, wherein the control apparatus is further designed, in a first opening step, to actuate the connection valve so as to partially open same at the start of a liquid gas discharge process in such a way that the volume flow in the measuring line portion does not fall below the minimum volume flow for the duration of the first opening step and, in a subsequent second opening step, to actuate the connection valve so as to fully open same.
A method of making a superelastic medical device with a radiopaque marker, the method comprising: threading a radiopaque marker having an elongated shape over a wire comprising a shape memory alloy; after the threading, securing the wire in a predetermined configuration to a mandrel; heat setting the wire while secured to the mandrel in an inert gas atmosphere so as to impart a memory of the predetermined configuration to the wire and superelastic properties to the shape memory alloy, thereby forming a superelastic medical device including the radiopaque marker. threading a radiopaque marker having an elongated shape over a wire comprising a shape memory alloy; after the threading, securing the wire in a predetermined configuration to a mandrel; heat setting the wire while secured to the mandrel in an inert gas atmosphere so as to impart a memory of the predetermined configuration to the wire and superelastic properties to the shape memory alloy, thereby forming a superelastic medical device including the radiopaque marker.
Pallet comprising a top deck and a supporting frame comprising one or more bottom slats which extend, at a distance from the top deck, underneath said top deck, with at least one bottom slat being connected to the top deck via an assembly of a wire-like connecting element and a holder, which are releasably connected to one another characterized in that the holder, is formed by a trough-like element or a trough-like portion,, in which the wire-like connecting element is releasably detained and that the connection between the connecting element and the holder, is designed to automatically come apart on account of a pulling force exerted on the top deck and the frame.
A method, comprising: at an electronic device with a display: while the display is in an inactive state, receiving an alert comprising information; in response to receiving the alert, issuing a perceptual output; detecting a user input; determining whether the user input was detected within a predetermined time interval after the perceptual output; and in accordance with a determination that the user input was detected within the predetermined time interval, displaying a notification on the display, wherein the notification comprises a first portion of the information, further wherein displaying the notification comprises activating the display from an inactive state. while the display is in an inactive state, receiving an alert comprising information; in response to receiving the alert, issuing a perceptual output; detecting a user input; determining whether the user input was detected within a predetermined time interval after the perceptual output; and in accordance with a determination that the user input was detected within the predetermined time interval, displaying a notification on the display, wherein the notification comprises a first portion of the information, further wherein displaying the notification comprises activating the display from an inactive state.
A linear proton accelerator including a plurality of accelerator components arranged after one another, said accelerator components comprising a proton source and a plurality of accelerating units (15, 17), and further including a reticular support structure for supporting said accelerator components, said support structure being shaped as a prism with a polygonal cross-section, and having a plurality of side faces joining opposite ends of the prism, wherein said support structure is arranged concentrically with respect to said accelerator components, said accelerator being characterized in that a plurality of shielding slabs of radiation shielding material are mounted on respective openings formed on said side faces of the support structure.
A multi-stage axial compressor comprising: a flow path having a plurality of compressor stages each including a rotor and a stator downstream of the rotor with respect to a flow direction, the flow path defined between annular inner and outer walls generally converging from an upstream inlet end to a downstream outlet end of the compressor, the inner and outer walls having a smaller radius at the outlet end than at the inlet end; characterised in that the inner wall is stepped from the inlet end to the outlet end to define a step portion for each of the stages, each step portion including a point on the inner wall radially aligned with a maximum thickness of an airfoil portion of a blade of the rotor of the stage and a point on the inner wall radially aligned with a maximum thickness of an airfoil portion of a vane (32; 132) of the stator of the stage, and the inner wall has a transition portion shaped as a smooth curve connecting each adjacent ones of the step portions, each transition portion converging radially inwardly from an upstream one of the adjacent step portions to a downstream one of the adjacent step portions, each transition portion having a steeper slope with respect to an axial direction of the compressor than that of the adjacent step portions. a flow path having a plurality of compressor stages each including a rotor and a stator downstream of the rotor with respect to a flow direction, the flow path defined between annular inner and outer walls generally converging from an upstream inlet end to a downstream outlet end of the compressor, the inner and outer walls having a smaller radius at the outlet end than at the inlet end; characterised in that the inner wall is stepped from the inlet end to the outlet end to define a step portion for each of the stages, each step portion including a point on the inner wall radially aligned with a maximum thickness of an airfoil portion of a blade of the rotor of the stage and a point on the inner wall radially aligned with a maximum thickness of an airfoil portion of a vane (32; 132) of the stator of the stage, and the inner wall has a transition portion shaped as a smooth curve connecting each adjacent ones of the step portions, each transition portion converging radially inwardly from an upstream one of the adjacent step portions to a downstream one of the adjacent step portions, each transition portion having a steeper slope with respect to an axial direction of the compressor than that of the adjacent step portions.
A pretreatment cup comprising: a base comprising an exterior base surface; a wall comprising an exterior wall surface; and an opening circumscribed by a rim, wherein the opening is at least partially opposite the base; wherein the exterior base surface is connected to the exterior wall surface at an exterior periphery surface; wherein a surface selected from the group consisting of: the exterior base surface, the exterior wall surface, the exterior periphery surface, and combinations thereof, comprises a scrubbing region, whereby the scrubbing region comprises at least two elongated protrusions, spaced apart by a distance between the elongated protrusions, the elongated protrusions having a length to width ratio of greater than 2, wherein the distance between the elongated protrusions is less than the height of the elongated protrusions, at the position where the distance between the elongated protrusions is a minimum, characterised in that the length of the elongated protrusions is measured as the axial length, along the major axis of the elongated protrusions, on the surface which comprises the elongated protrusion, the height of the elongated protrusion is measured perpendicular to the surface, from the length, the width is measured perpendicular to the length of the elongated protrusions, on the surface which comprises the elongated protrusion. a base comprising an exterior base surface; a wall comprising an exterior wall surface; and an opening circumscribed by a rim, wherein the opening is at least partially opposite the base; wherein the exterior base surface is connected to the exterior wall surface at an exterior periphery surface; wherein a surface selected from the group consisting of: the exterior base surface, the exterior wall surface, the exterior periphery surface, and combinations thereof, comprises a scrubbing region, whereby the scrubbing region comprises at least two elongated protrusions, spaced apart by a distance between the elongated protrusions, the elongated protrusions having a length to width ratio of greater than 2, wherein the distance between the elongated protrusions is less than the height of the elongated protrusions, at the position where the distance between the elongated protrusions is a minimum, characterised in that the length of the elongated protrusions is measured as the axial length, along the major axis of the elongated protrusions, on the surface which comprises the elongated protrusion, the height of the elongated protrusion is measured perpendicular to the surface, from the length, the width is measured perpendicular to the length of the elongated protrusions, on the surface which comprises the elongated protrusion.