mhurhangee/ep-ind-claims huggingface dataset:
A foldable bulk container including a base and four walls (14 & 16) surrounding the base in use in a square or rectangular configuration, each wall (14, 16) being pivotally connected to the base to facilitate folding down thereof over the base, each of the walls (14, 16) including reinforcing means in the form of at least one elongate hollow (18, 28, 30, 32) which, in use, is substantially parallel to the base; wherein each elongate hollow (18, 28, 30, 32) is concealed within the wall to minimise indents and recesses such that each wall has an outer surface which is substantially flat and an inner surface which is substantially smooth and wherein each elongate hollow (18, 28, 30, 32) is adapted to correspond to the elongate hollow of the adjacent walls (16, 14) to form a continual ring of elongate hollows (18, 28, 30, 32) so as to maximise rigidity of the bulk container.
A prosthetic device, comprising: a socket for receiving a residual limb; an adapter located within said socket along an interior distal end thereof, a proximal face of said adapter facing the socket interior and adapted to receive a distal end of a residual limb while an exterior surface of said adapter abuts an interior wall of said socket; aligned vacuum passages (106, 108) passing through said adapter and said socket, said vacuum passages (106, 108) allowing for evacuation of air from an interior of said socket through said adapter; an evacuation device comprising an electrically powered vacuum pump and a source of electric power both located within a housing, said housing adapted to be coupled to a bottom surface of said adapter with a bottom wall of said socket in contact with and trapped therebetween; and a vacuum passage passing through said housing, said vacuum passage aligned with said vacuum passages (106, 108) in said adapter and said socket when said evacuation device is properly mounted thereto; wherein said vacuum passage in said housing and said vacuum passages (106, 108) in said adapter and said socket form a continuous vacuum passageway and said vacuum pump is activatable to evacuate said socket by drawing air therefrom through said vacuum passageway while said residual limb is located within said socket and said evacuation device is properly mounted to said adapter. a socket for receiving a residual limb; an adapter located within said socket along an interior distal end thereof, a proximal face of said adapter facing the socket interior and adapted to receive a distal end of a residual limb while an exterior surface of said adapter abuts an interior wall of said socket; aligned vacuum passages (106, 108) passing through said adapter and said socket, said vacuum passages (106, 108) allowing for evacuation of air from an interior of said socket through said adapter; an evacuation device comprising an electrically powered vacuum pump and a source of electric power both located within a housing, said housing adapted to be coupled to a bottom surface of said adapter with a bottom wall of said socket in contact with and trapped therebetween; and a vacuum passage passing through said housing, said vacuum passage aligned with said vacuum passages (106, 108) in said adapter and said socket when said evacuation device is properly mounted thereto; wherein said vacuum passage in said housing and said vacuum passages (106, 108) in said adapter and said socket form a continuous vacuum passageway and said vacuum pump is activatable to evacuate said socket by drawing air therefrom through said vacuum passageway while said residual limb is located within said socket and said evacuation device is properly mounted to said adapter.
A method of preparing butadiene, comprising: a step, in which reaction raw materials containing butene, oxygen (O 2), steam, and a diluent gas, but not nitrogen, are passed through an oxidative dehydrogenation reaction part, and oxidative dehydrogenation is performed therein; a step of separating water from a butadiene-containing C4 mixture and gas products, which are generated in the oxidative dehydrogenation reaction, by passing the butadiene-containing C4 mixture and the gas products through a cooling separation part; a step of condensing hydrocarbons by passing the butadiene-containing C4 mixture and the gas products, from which water is separated, through a condensation separation part; and a step of separating butadiene by passing crude hydrocarbons comprising n-butane, butene, and butadiene, which are condensed in the condensation separation part, through a purification part, wherein a gas containing n-butane remaining after butadiene is separated in the purification part is fed again into the oxidative dehydrogenation reaction part, and the diluent gas is butane. a step, in which reaction raw materials containing butene, oxygen (O 2), steam, and a diluent gas, but not nitrogen, are passed through an oxidative dehydrogenation reaction part, and oxidative dehydrogenation is performed therein; a step of separating water from a butadiene-containing C4 mixture and gas products, which are generated in the oxidative dehydrogenation reaction, by passing the butadiene-containing C4 mixture and the gas products through a cooling separation part; a step of condensing hydrocarbons by passing the butadiene-containing C4 mixture and the gas products, from which water is separated, through a condensation separation part; and a step of separating butadiene by passing crude hydrocarbons comprising n-butane, butene, and butadiene, which are condensed in the condensation separation part, through a purification part, wherein a gas containing n-butane remaining after butadiene is separated in the purification part is fed again into the oxidative dehydrogenation reaction part, and the diluent gas is butane.
A power transmission arrangement for a vehicle, comprising, a transmission assembly comprising a first input shaft, a second input shaft and a common output shaft, a first drive means drivingly connected to the first input shaft for driving the first input shaft, and a second drive means drivingly connected to the second input shaft for driving the second input shaft, wherein the transmission assembly further comprises, a first input shaft first gearwheel and a first input shaft second gearwheel arranged axially offset with respect to each other on the first input shaft, a second input shaft first gear wheel and a second input shaft second gear wheel arranged axially offset with respect to each other on the second input shaft, an output shaft first gear wheel and an output shaft second gear wheel arranged axially offset with respect to each other on the common output shaft, wherein each one of the first input shaft first gear wheel and the second input shaft first gear wheel is meshing with the output shaft first gear wheel, and wherein each one of the first input shaft second gear wheel and the second input shaft second gear wheel is meshing with the output shaft second gear wheel, wherein, the first input shaft first gear wheel is arranged freely rotatable with respect to the first input shaft, characterized in that, the output shaft first gearwheel is arranged freely rotatable with respect to the common output shaft. a transmission assembly comprising a first input shaft, a second input shaft and a common output shaft, a first drive means drivingly connected to the first input shaft for driving the first input shaft, and a second drive means drivingly connected to the second input shaft for driving the second input shaft, wherein the transmission assembly further comprises, a first input shaft first gearwheel and a first input shaft second gearwheel arranged axially offset with respect to each other on the first input shaft, a second input shaft first gear wheel and a second input shaft second gear wheel arranged axially offset with respect to each other on the second input shaft, an output shaft first gear wheel and an output shaft second gear wheel arranged axially offset with respect to each other on the common output shaft, wherein each one of the first input shaft first gear wheel and the second input shaft first gear wheel is meshing with the output shaft first gear wheel, and wherein each one of the first input shaft second gear wheel and the second input shaft second gear wheel is meshing with the output shaft second gear wheel, wherein, the first input shaft first gear wheel is arranged freely rotatable with respect to the first input shaft, characterized in that, the output shaft first gearwheel is arranged freely rotatable with respect to the common output shaft.
Hybrid contact having a first contact portion which is formed in a solid manner from metal and a second contact portion in the form of a punched/bent component which are connected to each other by means of a press-fit, characterized in that that the hybrid contact has a label carrier and a filament connected to the label carrier, which filament is fixed to the contact portions (12, 14) in the press-fit.
A device comprising: i) a folded camera module (200, 1100), comprising: a) a lens module (204, 1004, 1104) having a lens optical axis; and b) an optical path folding element (OPFE) (208, 308, 1108) for folding light from a first optical path (205, 1105) to a second optical path (206, 1106) towards an image sensor (202, 1102), the second optical path being along the lens optical axis; and ii) a gyroscope for providing data input indicative of folded camera tilt; wherein the lens module is designed to be moved for auto-focus along a first direction substantially parallel to the lens optical axis characterized in that the lens module is further designed to be moved for OIS in a second direction substantially orthogonal to both the first and second optical paths, and wherein the OPFE is designed to be tilted for OIS only around an OPFE tilt axis that is parallel to the second direction to compensate only for tilt of the folded camera module around the second direction. i) a folded camera module (200, 1100), comprising: a) a lens module (204, 1004, 1104) having a lens optical axis; and b) an optical path folding element (OPFE) (208, 308, 1108) for folding light from a first optical path (205, 1105) to a second optical path (206, 1106) towards an image sensor (202, 1102), the second optical path being along the lens optical axis; and a) a lens module (204, 1004, 1104) having a lens optical axis; and b) an optical path folding element (OPFE) (208, 308, 1108) for folding light from a first optical path (205, 1105) to a second optical path (206, 1106) towards an image sensor (202, 1102), the second optical path being along the lens optical axis; and ii) a gyroscope for providing data input indicative of folded camera tilt; wherein the lens module is designed to be moved for auto-focus along a first direction substantially parallel to the lens optical axis characterized in that the lens module is further designed to be moved for OIS in a second direction substantially orthogonal to both the first and second optical paths, and wherein the OPFE is designed to be tilted for OIS only around an OPFE tilt axis that is parallel to the second direction to compensate only for tilt of the folded camera module around the second direction. wherein the lens module is designed to be moved for auto-focus along a first direction substantially parallel to the lens optical axis characterized in that the lens module is further designed to be moved for OIS in a second direction substantially orthogonal to both the first and second optical paths, and wherein the OPFE is designed to be tilted for OIS only around an OPFE tilt axis that is parallel to the second direction to compensate only for tilt of the folded camera module around the second direction.
A pre-crushing device for a ball mill or agitator bead mill, wherein the pre-crushing device can be arranged between a ground material inlet of the ball mill or agitator bead mill and a milling chamber, and comprises a first stationary crushing means and a second rotatable crushing means, between which a crushing gap is formed, and wherein the first stationary crushing means is a crushing ring that can be arranged in the grinding jar, characterized in that the first stationary crushing means has an internal gearing, and that the second crushing means comprises first partial area and a second partial area, wherein the second partial area has guide structures for the ground material which can guide the ground material in the direction of the first partial area, and wherein at least the first partial area of the second crushing means comprises a first external gearing, wherein the first crushing means and the second crushing means can be arranged in such a way that the external gearing of the first partial area of the second crushing means largely engages into the internal gearing of the first crushing means with the formation of the crushing gap.
A urethane adhesive composition comprising: a urethane prepolymer having an isocyanate group; an isocyanurate compound having an isocyanurate ring; a terpene compound having active hydrogen; and a vinyl silane coupling agent represented by Formula below: where in Formula, R 1 and R 3 each independently represent a monovalent hydrocarbon group, R 2 represents a (n + 1) valent hydrocarbon group, Vi represents -CH=CH 2, m1 is from 1 to 3, m2 is from 1 to 3, m3 is from 0 to 2, m1 + m2 + m3 is 4, and n is 1 or greater. a urethane prepolymer having an isocyanate group; an isocyanurate compound having an isocyanurate ring; a terpene compound having active hydrogen; and a vinyl silane coupling agent represented by Formula below: where in Formula, R 1 and R 3 each independently represent a monovalent hydrocarbon group, R 2 represents a (n + 1) valent hydrocarbon group, Vi represents -CH=CH 2, m1 is from 1 to 3, m2 is from 1 to 3, m3 is from 0 to 2, m1 + m2 + m3 is 4, and n is 1 or greater.
A computer-implemented method of creating an indoor map from a CAD drawing, the method comprising: preprocessing, by a device, an original CAD drawing to create a modified CAD drawing, a text database containing text from the original CAD drawing, a CAD vector-image of the modified CAD drawing, and a CAD raster-image of the modified CAD drawing; determining, by a device, a floor depicted in the CAD drawing by applying the CAD raster-image, the CAD vector-image, and the text database to a floor-level machine-learning algorithm, the determining results in a floor-level outline; sensing, by a device, furniture depicted on the floor by applying the floor-level outline, the CAD vector-image, and the text database to a furniture-level machine-learning algorithm, the sensing creates a set of furniture entities; identifying, by a device, each room depicted in the CAD drawing by applying the floor-level outline, the set of furniture entities, CAD vector-image, and the text database to room-level machine-learning algorithm, the identifying creates a plurality of room-level outlines; and creating, by a device, an indoor map by combining the set of furniture entities and the plurality of room-level outlines. preprocessing, by a device, an original CAD drawing to create a modified CAD drawing, a text database containing text from the original CAD drawing, a CAD vector-image of the modified CAD drawing, and a CAD raster-image of the modified CAD drawing; determining, by a device, a floor depicted in the CAD drawing by applying the CAD raster-image, the CAD vector-image, and the text database to a floor-level machine-learning algorithm, the determining results in a floor-level outline; sensing, by a device, furniture depicted on the floor by applying the floor-level outline, the CAD vector-image, and the text database to a furniture-level machine-learning algorithm, the sensing creates a set of furniture entities; identifying, by a device, each room depicted in the CAD drawing by applying the floor-level outline, the set of furniture entities, CAD vector-image, and the text database to room-level machine-learning algorithm, the identifying creates a plurality of room-level outlines; and creating, by a device, an indoor map by combining the set of furniture entities and the plurality of room-level outlines.
A structure for a farrowing pen having a framework provided with first and second barrier members (36, 40) between which a sow can be confined, wherein the first barrier member is pivotably mounted relative to the framework about an axis in a lower portion of the first barrier member to enable an upper portion of the first barrier member to move towards and away from the second barrier member, characterised in that the second barrier member is moveable relative to the framework to vary the floor area available to the sow, while remaining in generally the same orientation above the horizontal.
An apparatus, comprising: a connector for providing a network connection via cabling utilizing optical fibers; and an interface device coupled to the connector and configured to multiplex at least two communications links, each capable of transmitting data at a rate of at least 1 gigabit per second (Gbps), into a single communications link having a bit rate of at least 2 Gbps established over one or more of the optical fibers, wherein the interface device is configured to aggregate at least two links with a single virtual media access control address, and wherein the interface device is configured to add a tag comprising at least one bit based on which communication link the data originates from. a connector for providing a network connection via cabling utilizing optical fibers; and an interface device coupled to the connector and configured to multiplex at least two communications links, each capable of transmitting data at a rate of at least 1 gigabit per second (Gbps), into a single communications link having a bit rate of at least 2 Gbps established over one or more of the optical fibers, wherein the interface device is configured to aggregate at least two links with a single virtual media access control address, and wherein the interface device is configured to add a tag comprising at least one bit based on which communication link the data originates from.
A method implemented in an enhanced NodeB, 'eNB', for a single carrier frequency division multiple access, 'SC-FDMA', wireless system comprising: assigning a common or shared scheduling request resource, 'CSR-resource', to a plurality of User Equipments, 'UEs', wherein the CSR-resource is a recurring CSR-resource, i.e. the CSR-resource has time-domain recurrence; receiving an SC-FDMA uplink shared channel signal on the assigned recurring CSR-resource; decoding a user identifier, 'ID', from the received SC-FDMA uplink shared channel signal; and transmitting a message assigning a portion of a resource of the wireless system to a UE associated with the decoded user ID. assigning a common or shared scheduling request resource, 'CSR-resource', to a plurality of User Equipments, 'UEs', wherein the CSR-resource is a recurring CSR-resource, i.e. the CSR-resource has time-domain recurrence; receiving an SC-FDMA uplink shared channel signal on the assigned recurring CSR-resource; decoding a user identifier, 'ID', from the received SC-FDMA uplink shared channel signal; and transmitting a message assigning a portion of a resource of the wireless system to a UE associated with the decoded user ID.
Process for increasing the absorption capacity of a material containing alkaline earth metal carbonate and alkaline earth metal hydroxide toward sulfur oxides and/or other noxiants in flue gas, characterized in that the material containing alkaline earth metal carbonate and alkaline earth metal hydroxide is activated in a separate step by heating to 300°C to 500°C for a period of 1 minute to 12 hours before its use as sorbent.
A work vehicle comprising: a cab; an engine room having a vehicle body cover and disposed to the rear of the cab, an engine disposed inside the engine room; a first exhaust processing device disposed over the engine; and a second exhaust processing device disposed over the engine, wherein the vehicle body cover comprises: an outside ventilation cover part having an outside ventilation hole (642, 643, 644) that communicates with an external space, the outside ventilation cover part being disposed in an inclined manner with respect to the vertical direction; and an inside ventilation cover part disposed so as to face the outside ventilation hole (642, 643, 644) on the inside of the outside ventilation cover part; wherein the inside ventilation cover part has a rain gutter part (73, 81) configured so as to receive water that enters from the outside ventilation hole (642, 643, 644), characterized in that the inside ventilation cover part has a ventilation part (74, 82) having an inside ventilation hole (741, 821) that communicates with a space on the inside of the inside ventilation cover part, the ventilation part (74, 82) being disposed above the rain gutter part (73, 81). a cab; an engine room having a vehicle body cover and disposed to the rear of the cab, an engine disposed inside the engine room; a first exhaust processing device disposed over the engine; and a second exhaust processing device disposed over the engine, wherein the vehicle body cover comprises: an outside ventilation cover part having an outside ventilation hole (642, 643, 644) that communicates with an external space, the outside ventilation cover part being disposed in an inclined manner with respect to the vertical direction; and an inside ventilation cover part disposed so as to face the outside ventilation hole (642, 643, 644) on the inside of the outside ventilation cover part; an outside ventilation cover part having an outside ventilation hole (642, 643, 644) that communicates with an external space, the outside ventilation cover part being disposed in an inclined manner with respect to the vertical direction; and an inside ventilation cover part disposed so as to face the outside ventilation hole (642, 643, 644) on the inside of the outside ventilation cover part;
An engine-driven working machine in which an outer case is formed to extend in a front-rear direction, and an engine is housed in an inside of the outer case, the machine comprising: a crankshaft of the engine, which is disposed to intersect the front-rear direction of the outer case; an intake port and an exhaust port that are disposed in the front-rear direction of the outer case; a carburetor that is disposed at a side of the intake port; a muffler that is disposed at a side of the exhaust port; a cooling fan that is provided at a side of an extension line of the crankshaft, and has an outlet port for cooling air disposed to face the carburetor; and a cover unit that includes a fan cover that covers the cooling fan and is provided at a left side of the engine, a shroud that covers a right side of the engine, and a muffler cover that covers the muffler and is provided at respective rear end portions of the fan cover and the shroud, wherein the carburetor is disposed at an outer side of the cover unit. a crankshaft of the engine, which is disposed to intersect the front-rear direction of the outer case; an intake port and an exhaust port that are disposed in the front-rear direction of the outer case; a carburetor that is disposed at a side of the intake port; a muffler that is disposed at a side of the exhaust port; a cooling fan that is provided at a side of an extension line of the crankshaft, and has an outlet port for cooling air disposed to face the carburetor; and a cover unit that includes a fan cover that covers the cooling fan and is provided at a left side of the engine, a shroud that covers a right side of the engine, and a muffler cover that covers the muffler and is provided at respective rear end portions of the fan cover and the shroud, wherein the carburetor is disposed at an outer side of the cover unit.