mhurhangee/ep-ind-claims huggingface dataset:
A die for shear drawing comprising a material processing channel in which a material is sheared and drawn while continuously passing therethrough, wherein the processing channel includes an inlet path positioned at a front end thereof, and an outlet path positioned at a rear end thereof, when viewed from a movement direction of a material, the inlet path and the outlet path are connected to intersect central axes thereof at a certain intersecting angle, the processing channel includes a cross-section reduction segment (A, B) allowing an outlet cross-sectional area of the outlet path to be smaller than an inlet cross-sectional area of the inlet path to thereby draw out a material from an exit of the outlet path with the material filled therein, characterized in that the cross-section reduction segment (A, B) comprises a first cross-section reduction segment formed on one side of the processing channel and a second cross-section reduction segment formed on the other side of the processing channel, when the die is viewed in cross section, any one of the first cross-section reduction segment and the second cross-section reduction segment has one or more cross-section reduction segments, and the other cross-section reduction segment has a curved portion, and the one or more cross-section reduction segments (A, B) are formed on either or both sides of the inlet path and the outlet path, and the other curved cross-section reduction segment is formed between the inlet path and the outlet path.
A radar level measuring device with a signal generator for generating electromagnetic waves and an antenna for emitting the electromagnetic waves as well as receiving reflected electromagnetic waves, with a safety device for checking the functionality or for improving the measuring quality of the radar level measuring device, wherein the safety device comprises a reflector, wherein the safety device has at least one additional sensor for detecting a measuring quantity, characterized in that the safety device comprises an adjusting device and is suitably configured for adjusting the reflector at least between a first position, in which the reflector reflects the electromagnetic waves, and a second position, in which the reflector reflects the electromagnetic waves in a reduced manner.
An animal processing apparatus including a processing conveyor for conveying an animal therealong, the conveyor including two conveyor belts, one on each side of a position to be occupied by an animal, and an information capture means provided on the conveyor, characterized in that the information capture means comprises two interrogating means, one within each of said conveyor belts, for interrogating an identity tag on the animal.
A wing tip, comprising: an attachment end shaped to attach to a swept and tapered wing (104, 402) with a leading edge, the attachment end defining a wing chord plane; a winglet (100, 404) coupled to the attachment end extending above the wing chord plane, the winglet having a leading edge (110; 302) and a tip and, when mounted to the wing, being swept and tapered to a greater extent than the wing, the leading edge of the winglet including a linear section with a sweep angle (Δ1) of up to 65° and, when mounted to the wing, a continuous and smooth transition from the leading edge of the wing to the linear section; and a swept and tapered fin (102; 406) coupled to the attachment end, extending below the wing chord plane and the winglet, the fin having a leading edge and a tip; and wherein: the leading edges (110, 122; 302, 303) of both the winglet and the fin have a curve which varies monotonically with a leading edge sweep angle up to 65°, and which transitions at the respective tip along a continuous curve towards the direction of the airstream over the tip. an attachment end shaped to attach to a swept and tapered wing (104, 402) with a leading edge, the attachment end defining a wing chord plane; a winglet (100, 404) coupled to the attachment end extending above the wing chord plane, the winglet having a leading edge (110; 302) and a tip and, when mounted to the wing, being swept and tapered to a greater extent than the wing, the leading edge of the winglet including a linear section with a sweep angle (Δ1) of up to 65° and, when mounted to the wing, a continuous and smooth transition from the leading edge of the wing to the linear section; and a swept and tapered fin (102; 406) coupled to the attachment end, extending below the wing chord plane and the winglet, the fin having a leading edge and a tip; and wherein: the leading edges (110, 122; 302, 303) of both the winglet and the fin have a curve which varies monotonically with a leading edge sweep angle up to 65°, and which transitions at the respective tip along a continuous curve towards the direction of the airstream over the tip. the leading edges (110, 122; 302, 303) of both the winglet and the fin have a curve which varies monotonically with a leading edge sweep angle up to 65°, and which transitions at the respective tip along a continuous curve towards the direction of the airstream over the tip.
A method of manufacturing a casing having a cylinder chamber in which a rotational compression element (27, 28) driven by a driving machine slides, comprising: a step of disposing a cylinder liner forming the cylinder chamber in a mold, and casting a casing main body by using molten metal while integrally incorporating the cylinder liner in the casted casing main body; and characterized by further comprising a step of processing an intercommunication hole (22A, 23B) and an exhaust hole (22C, 23C) that penetrate through the cylinder liner and the casing main body together and intercommunicate with the cylinder chamber, the processing of the intercommunication hole (22A, 23B) and the exhaust hole (22C, 23C) being a single machining process performed from a side surface of the casing main body, wherein the single machining process is performed from an upper surface side of the casing main body, such that the intercommunication hole (22A, 23B) and the exhaust hole (22C, 23C) are arranged on the same axial center line so as to sandwich the cylinder chamber. a step of disposing a cylinder liner forming the cylinder chamber in a mold, and casting a casing main body by using molten metal while integrally incorporating the cylinder liner in the casted casing main body; and characterized by further comprising a step of processing an intercommunication hole (22A, 23B) and an exhaust hole (22C, 23C) that penetrate through the cylinder liner and the casing main body together and intercommunicate with the cylinder chamber, the processing of the intercommunication hole (22A, 23B) and the exhaust hole (22C, 23C) being a single machining process performed from a side surface of the casing main body, wherein the single machining process is performed from an upper surface side of the casing main body, such that the intercommunication hole (22A, 23B) and the exhaust hole (22C, 23C) are arranged on the same axial center line so as to sandwich the cylinder chamber.
A caliper body for a vehicle disc brake, the caliper body including a working section disposed on a side of a disc rotor, the working section having a plurality of cylinder holes (6d, 6e, 6f) disposed side by side in a disc circumference direction, the cylinder holes (6d, 6e, 6f) being communicated with each other via a communication hole, wherein the plurality of cylinder holes (6d, 6e, 6f) including a cylinder hole disposed in an uppermost part when the caliper body is installed in a vehicle body are communicated with each other via the communication hole and recesses (6k, 6m) to which the communication hole is connected are formed in bottoms of the plurality of the cylinder holes (6d, 6e, 6f) communicated with each other via the communication hole, a connection hole opened to an outer surface of the caliper body is formed in the recess of the cylinder hole disposed in the uppermost part when the caliper body is installed in the vehicle body, the connection hole being aligned with the communication hole on the same straight line, and the communication hole or the connection hole is connected in positions in the recesses (6k, 6m) that become an upper end when the caliper body is installed in the vehicle body, characterized in that slanted air extraction sections (6t, 6u) that are slanted toward the upper end are formed in the recesses (6k, 6m). wherein the plurality of cylinder holes (6d, 6e, 6f) including a cylinder hole disposed in an uppermost part when the caliper body is installed in a vehicle body are communicated with each other via the communication hole and recesses (6k, 6m) to which the communication hole is connected are formed in bottoms of the plurality of the cylinder holes (6d, 6e, 6f) communicated with each other via the communication hole, a connection hole opened to an outer surface of the caliper body is formed in the recess of the cylinder hole disposed in the uppermost part when the caliper body is installed in the vehicle body, the connection hole being aligned with the communication hole on the same straight line, and the communication hole or the connection hole is connected in positions in the recesses (6k, 6m) that become an upper end when the caliper body is installed in the vehicle body, characterized in that slanted air extraction sections (6t, 6u) that are slanted toward the upper end are formed in the recesses (6k, 6m).
A method of producing expanded tobacco stems for tobacco cut filler, the method comprising the steps of: rolling tobacco stems to a rolled thickness of 0.1 to 0.5 mm, such that the cellular structure of the stems is at least partially broken down; conditioning the rolled stems; cutting the conditioned tobacco stems; impregnating the cut tobacco stems with liquid carbon dioxide; heating the impregnated stems to bring about expansion; and re-conditioning the stems after heating. rolling tobacco stems to a rolled thickness of 0.1 to 0.5 mm, such that the cellular structure of the stems is at least partially broken down; conditioning the rolled stems; cutting the conditioned tobacco stems; impregnating the cut tobacco stems with liquid carbon dioxide; heating the impregnated stems to bring about expansion; and re-conditioning the stems after heating.
An organometallic complex comprising a structure represented by the following formula, wherein R 1 is an alkyl group, wherein each of R 2 to R 5 is any one selected from the group consisting of hydrogen, a halogen, an acyl group, an alkyl group, an alkoxyl group, an aryl group, a cyano group, and a heterocyclic group, wherein Ar is an aryl group having a halogen, or a haloalkyl group, or a heterocyclic group having a halogen, haloalkyl group, and wherein M is an iridium atom. wherein R 1 is an alkyl group, wherein each of R 2 to R 5 is any one selected from the group consisting of hydrogen, a halogen, an acyl group, an alkyl group, an alkoxyl group, an aryl group, a cyano group, and a heterocyclic group, wherein Ar is an aryl group having a halogen, or a haloalkyl group, or a heterocyclic group having a halogen, haloalkyl group, and wherein M is an iridium atom.
A process for making cyclohexanone, the process comprising the following steps: feeding a first mixture comprising cyclohexanone, phenol, and cyclohexylbenzene into a first distillation column; obtaining from the first distillation column: a first upper effluent comprising cyclohexanone at a concentration higher than the first mixture, phenol, and cyclohexylbenzene; a first middle effluent comprising cyclohexanone, phenol at a concentration higher than the first mixture, cyclohexylbenzene, and bicyclohexane; and a first lower effluent comprising cyclohexylbenzene at a concentration higher than the first mixture; feeding at least a portion of the first middle effluent and hydrogen into a hydrogenation reaction zone where phenol reacts with hydrogen in the presence of a hydrogenation catalyst under hydrogenation reaction conditions to obtain a hydrogenation reaction product comprising cyclohexanone at a concentration higher than the first middle effluent, phenol at a concentration lower than the first middle effluent, cyclohexylbenzene, and bicyclohexane; and feeding at least a portion of the hydrogenation reaction product into the first distillation column. feeding a first mixture comprising cyclohexanone, phenol, and cyclohexylbenzene into a first distillation column; obtaining from the first distillation column: a first upper effluent comprising cyclohexanone at a concentration higher than the first mixture, phenol, and cyclohexylbenzene; a first middle effluent comprising cyclohexanone, phenol at a concentration higher than the first mixture, cyclohexylbenzene, and bicyclohexane; and a first lower effluent comprising cyclohexylbenzene at a concentration higher than the first mixture; a first upper effluent comprising cyclohexanone at a concentration higher than the first mixture, phenol, and cyclohexylbenzene; a first middle effluent comprising cyclohexanone, phenol at a concentration higher than the first mixture, cyclohexylbenzene, and bicyclohexane; and a first lower effluent comprising cyclohexylbenzene at a concentration higher than the first mixture; feeding at least a portion of the first middle effluent and hydrogen into a hydrogenation reaction zone where phenol reacts with hydrogen in the presence of a hydrogenation catalyst under hydrogenation reaction conditions to obtain a hydrogenation reaction product comprising cyclohexanone at a concentration higher than the first middle effluent, phenol at a concentration lower than the first middle effluent, cyclohexylbenzene, and bicyclohexane; and feeding at least a portion of the hydrogenation reaction product into the first distillation column.
A switching device, comprising: multiple Peripheral Component Interconnect Express, PCIe, upstream ports, configured to connect to at least one host; at least one PCIe downstream port, configured to connect to at least one input/output, I/O, device; and an internal processing apparatus, connected to the at least one PCIe downstream port by using an internal connection line of the switching device, characterized in that the internal processing apparatus is configured to: transmit a configuration read/write packet to the at least one PCIe downstream port by using the internal connection line; receive a configuration read/write response packet transmitted by the at least one PCIe downstream port by using the internal connection line, wherein the configuration read/write response packet carries a completer identification; and determine, according to the completer identification carried in the configuration read/write response packet, that the switching device is connected to an I/O device whose identification is the completer identification. multiple Peripheral Component Interconnect Express, PCIe, upstream ports, configured to connect to at least one host; at least one PCIe downstream port, configured to connect to at least one input/output, I/O, device; and an internal processing apparatus, connected to the at least one PCIe downstream port by using an internal connection line of the switching device, characterized in that the internal processing apparatus is configured to: transmit a configuration read/write packet to the at least one PCIe downstream port by using the internal connection line; receive a configuration read/write response packet transmitted by the at least one PCIe downstream port by using the internal connection line, wherein the configuration read/write response packet carries a completer identification; and determine, according to the completer identification carried in the configuration read/write response packet, that the switching device is connected to an I/O device whose identification is the completer identification. transmit a configuration read/write packet to the at least one PCIe downstream port by using the internal connection line; receive a configuration read/write response packet transmitted by the at least one PCIe downstream port by using the internal connection line, wherein the configuration read/write response packet carries a completer identification; and determine, according to the completer identification carried in the configuration read/write response packet, that the switching device is connected to an I/O device whose identification is the completer identification.
A system for stacking shipping containers which are transporting livestock on a shipping vessel comprising a. a first shipping container for transporting livestock; b. a second shipping container for transporting livestock stacked in a vertical relation above the first shipping container and c. an external catwalk wherein the first shipping container having a feed partition dividing the interior of the first shipping container into a feed storage area and a livestock storage area, wherein the feed storage area comprises a horizontal overhead space and a vertical sidewall space and wherein an opening in the first shipping container provides access from a deck of the shipping vessel to the vertical sidewall space during shipment; the second shipping container having a feed partition dividing the interior of the second shipping container into a feed storage area and a livestock storage area, wherein the feed storage area comprises a horizontal overhead space and a vertical sidewall space and wherein an opening elevated from the deck of the shipping vessel is in communication with vertical sidewall space (63,) wherein each of the first and second shipping containers are supplied with pressurized water and with electrical power; and the external catwalk in communication with the second shipping container providing access to the opening of the second shipping container during shipment. a. a first shipping container for transporting livestock; b. a second shipping container for transporting livestock stacked in a vertical relation above the first shipping container and c. an external catwalk wherein the first shipping container having a feed partition dividing the interior of the first shipping container into a feed storage area and a livestock storage area, wherein the feed storage area comprises a horizontal overhead space and a vertical sidewall space and wherein an opening in the first shipping container provides access from a deck of the shipping vessel to the vertical sidewall space during shipment; the second shipping container having a feed partition dividing the interior of the second shipping container into a feed storage area and a livestock storage area, wherein the feed storage area comprises a horizontal overhead space and a vertical sidewall space and wherein an opening elevated from the deck of the shipping vessel is in communication with vertical sidewall space (63,) wherein each of the first and second shipping containers are supplied with pressurized water and with electrical power; and the external catwalk in communication with the second shipping container providing access to the opening of the second shipping container during shipment.
A method of controlling steel reinforcement straightening equipment including a large pressure roll and a fine correction roll, the method comprising: obtaining a first image and a second image by photographing a steel bar when the steel bar output through an outlet of the steel reinforcement straightening equipment passes each of two predetermined positions; identifying an area of a control map including a plurality of areas, the area of the control map being matched with a steel bar end point of the second image when a starting point of the control map is matched with a steel bar end point of the first image; and controlling the steel reinforcement straightening equipment based on a predetermined control value mapped to the identified area of the control map. obtaining a first image and a second image by photographing a steel bar when the steel bar output through an outlet of the steel reinforcement straightening equipment passes each of two predetermined positions; identifying an area of a control map including a plurality of areas, the area of the control map being matched with a steel bar end point of the second image when a starting point of the control map is matched with a steel bar end point of the first image; and controlling the steel reinforcement straightening equipment based on a predetermined control value mapped to the identified area of the control map.
A controller for use in an interactive gaming system, the controller being configured to be worn by a player and comprising a player mounting means, a motion detector that provides a means for determining the motion of the controller, a microprocessor and an audio code communication module, wherein the audio code communication module comprises an audio codec module connected to a speaker and a microphone, to provide a means for the controller to transmit and receive audio code signals, wherein the audio code communication module provides a means for generating an audio code signal in response to a predetermined motion of the controller detected by the microprocessor in combination with the motion detector, the audio code signal adapted to be embedded within normal audio output by operating above the normal frequency range for human hearing, and wherein the generated audio code signal comprises a unique audio code signal assigned to the predetermined motion, the predetermined motion being from a predefined set of motions to be performed by the player.
A corrugated board comprising a corrugated medium, a liner and an adhesive arranged to attach the fluted corrugated medium to the liner wherein the adhesive comprises starch and microfibrillated cellulose characterized in that the microfibrillated cellulose has a Schopper-Riegler value above 97.