mhurhangee/ep-ind-claims huggingface dataset:
An oxyfuel combustion boiler plant comprising: an air separation unit for manufacturing oxygen by separating nitrogen from air, a boiler having a burner for burning the oxygen supplied from the air separation unit and pulverized coal a primary system pipe for supplying the pulverized coal to the burner, and a coal mill, an exhaust gas recirculation system pipe for supplying combustion exhaust gas discharged from the boiler to the coal mill, and a carbon dioxide capture unit for capturing carbon dioxide in the exhaust gas discharged from the boiler, characterized in that: the oxyfuel combustion boiler plant is further comprising: an oxygen buffer tank disposed on a downstream side of the air separation unit; an oxygen supply pipe for supplying oxygen to the primary system pipe of the burner from the oxygen buffer tank; and a nitrogen supply pipe (1.37) for supplying a part of nitrogen generated from the air separation unit or an air supply pipe for supplying air from outside, which supply pipe (137,138) is connected to the oxygen supply pipe on a downstream side of the oxygen buffer tank and on an upstream side of a junction with the primary system pipe. an air separation unit for manufacturing oxygen by separating nitrogen from air, a boiler having a burner for burning the oxygen supplied from the air separation unit and pulverized coal a primary system pipe for supplying the pulverized coal to the burner, and a coal mill, an exhaust gas recirculation system pipe for supplying combustion exhaust gas discharged from the boiler to the coal mill, and a carbon dioxide capture unit for capturing carbon dioxide in the exhaust gas discharged from the boiler, characterized in that: the oxyfuel combustion boiler plant is further comprising: an oxygen buffer tank disposed on a downstream side of the air separation unit; an oxygen supply pipe for supplying oxygen to the primary system pipe of the burner from the oxygen buffer tank; and a nitrogen supply pipe (1.37) for supplying a part of nitrogen generated from the air separation unit or an air supply pipe for supplying air from outside, which supply pipe (137,138) is connected to the oxygen supply pipe on a downstream side of the oxygen buffer tank and on an upstream side of a junction with the primary system pipe. the oxyfuel combustion boiler plant is further comprising: an oxygen buffer tank disposed on a downstream side of the air separation unit; an oxygen supply pipe for supplying oxygen to the primary system pipe of the burner from the oxygen buffer tank; and a nitrogen supply pipe (1.37) for supplying a part of nitrogen generated from the air separation unit or an air supply pipe for supplying air from outside, which supply pipe (137,138) is connected to the oxygen supply pipe on a downstream side of the oxygen buffer tank and on an upstream side of a junction with the primary system pipe.
Method for manufacturing a motor vehicle part, in particular a motor vehicle pillar, characterised by following method steps: - provision of a cold-worked blank made of an aluminium alloy in the 5000 series, - partial heating of the blank in a first area to a temperature greater than 350°C, wherein the blank in a second area is kept at a temperature of between 15°C and 30°C and the partial heating is carried out in less than 20 s, - tempering the entire blank to a temperature of between 150 and 350°C in less than 20 s, wherein the tempering is carried out in a separate tempering tool wherein a combined forming and cooling tool, or a forming and cooling tool separate therefrom, follows the tempering tool, - forming of the blank to form the motor vehicle part in less than 20 s and cooling of the motor vehicle part, - wherein with the method a yield strength is set in the first area at less than 250 MPa and more than 120 MPa and in the second area at less than 450 MPa and more than 200 MPa. - provision of a cold-worked blank made of an aluminium alloy in the 5000 series, - partial heating of the blank in a first area to a temperature greater than 350°C, wherein the blank in a second area is kept at a temperature of between 15°C and 30°C and the partial heating is carried out in less than 20 s, - tempering the entire blank to a temperature of between 150 and 350°C in less than 20 s, wherein the tempering is carried out in a separate tempering tool wherein a combined forming and cooling tool, or a forming and cooling tool separate therefrom, follows the tempering tool, - forming of the blank to form the motor vehicle part in less than 20 s and cooling of the motor vehicle part, - wherein with the method a yield strength is set in the first area at less than 250 MPa and more than 120 MPa and in the second area at less than 450 MPa and more than 200 MPa.
Toilet arrangement for a means of transport, having - a first toilet compartment, - a second toilet compartment, which is adjacent to the first, and - a separating wall (14, 28, 30), which is situated between the first toilet compartment and the second toilet compartment, wherein the separating wall is mounted in a movable manner and is configured to be brought into an open position in which there is no separation between the first toilet compartment and the second toilet compartment; wherein the separating wall (14, 28, 30) is constructed from two individual separating wall segments (28, 30) which are mounted in a movable manner; wherein a first separating wall segment is configured to be swung onto a first side wall of the first toilet compartment, while the second separating wall segment is configured to be pivoted into a region which is not situated in the first toilet compartment and which is not situated in the second toilet compartment. - a first toilet compartment, - a second toilet compartment, which is adjacent to the first, and - a separating wall (14, 28, 30), which is situated between the first toilet compartment and the second toilet compartment, wherein the separating wall is mounted in a movable manner and is configured to be brought into an open position in which there is no separation between the first toilet compartment and the second toilet compartment; wherein the separating wall (14, 28, 30) is constructed from two individual separating wall segments (28, 30) which are mounted in a movable manner; wherein a first separating wall segment is configured to be swung onto a first side wall of the first toilet compartment, while the second separating wall segment is configured to be pivoted into a region which is not situated in the first toilet compartment and which is not situated in the second toilet compartment. wherein the separating wall is mounted in a movable manner and is configured to be brought into an open position in which there is no separation between the first toilet compartment and the second toilet compartment; wherein the separating wall (14, 28, 30) is constructed from two individual separating wall segments (28, 30) which are mounted in a movable manner; wherein a first separating wall segment is configured to be swung onto a first side wall of the first toilet compartment, while the second separating wall segment is configured to be pivoted into a region which is not situated in the first toilet compartment and which is not situated in the second toilet compartment.
Parasol, comprising a pole, a nut fixed to this pole, a runner slidably mounted on this pole, ribs (7a, 7b) articulated on said nut, spokes (9a, 9b) interposed in an articulated manner between said runner and said ribs (7a, 7b), characterized in that it comprises a cloth fixed to said ribs (7a, 7b), the ribs (7a, 7b) and the adjacent spokes (9a, 9b) substantially defining, with the pole, when the parasol is in use, a volume delimited by two lateral triangles, a lower triangle and an upper triangle, this sunshade comprising at least one storage compartment whose shape corresponds to that of said volume.
A camera decoration part, applied to an electronic device, wherein the electronic device comprises a camera assembly, the camera assembly comprises a main camera (011, 012) protruding from an outer surface of a housing of the electronic device by a first height, and a protrusion that is located around the main camera (011, 012) and that is connected to an outer surface of the housing of the electronic device; the camera decoration part comprises a first plate and a second plate; a first surface of the first plate is connected to a second surface of the second plate, and a first surface of the second plate is connected to the outer surface of the housing of the electronic device; a first through-hole used to penetrate through the main camera (on, 012) is disposed on the first plate, and a second through-hole (202 A) corresponding to the first through-hole is disposed on the second plate; the first surface of the first plate has a decoration rendering, and a material of the first plate is a transparent material; and the first surface of the second plate comprises a connection area and an avoidance area (202 B), and the avoidance area (202 B) is formed by recessing the first surface of the second plate to the second surface of the second plate by a first depth, wherein a thickness of the second plate is greater than or equal to a height of the protrusion on the housing of the electronic device, the first depth is greater than or equal to the height of the protrusion, and a projection of the protrusion is in a projection area of the avoidance area (202 B). the camera decoration part comprises a first plate and a second plate; a first surface of the first plate is connected to a second surface of the second plate, and a first surface of the second plate is connected to the outer surface of the housing of the electronic device; a first through-hole used to penetrate through the main camera (on, 012) is disposed on the first plate, and a second through-hole (202 A) corresponding to the first through-hole is disposed on the second plate; the first surface of the first plate has a decoration rendering, and a material of the first plate is a transparent material; and the first surface of the second plate comprises a connection area and an avoidance area (202 B), and the avoidance area (202 B) is formed by recessing the first surface of the second plate to the second surface of the second plate by a first depth, wherein a thickness of the second plate is greater than or equal to a height of the protrusion on the housing of the electronic device, the first depth is greater than or equal to the height of the protrusion, and a projection of the protrusion is in a projection area of the avoidance area (202 B).
A method for supporting backward compatibility in providing Multimedia Broadcast and Multicast service, MBMS, the method comprising: receiving a MBMS Context Activation Request message for requesting to activate MBMS context of a MBMS service from a Network Entity by a User Equipment, UE; selecting, by the UE, a Network Service Access Point Identifier, NSAPI, for the MBMS service; and sending an Activate MBMS Context Request message containing the selected Network Service Access Point Identifier, NSAPI, for requesting to activate MBMS context by the UE to the network entity; wherein the selected NSAPI is one-to-one correspondent to a Radio Access Bearer, RAB, identifier. receiving a MBMS Context Activation Request message for requesting to activate MBMS context of a MBMS service from a Network Entity by a User Equipment, UE; selecting, by the UE, a Network Service Access Point Identifier, NSAPI, for the MBMS service; and sending an Activate MBMS Context Request message containing the selected Network Service Access Point Identifier, NSAPI, for requesting to activate MBMS context by the UE to the network entity; wherein the selected NSAPI is one-to-one correspondent to a Radio Access Bearer, RAB, identifier.
A stone basket or gabion assembly, comprising a grid shell which is to be filled or has been filled with stones and has two opposite shell sides (4a, 4b), wherein at least one transverse tie is provided connecting both shell sides (4a, 4b) together in a traction-resistant manner, characterized in that at least one upright, which is disposed inside the stone basket assembly and no longer visible from the outside after erection and filling with stones, is provided for fastening the stone basket assembly to the ground, wherein the transverse tie is firmly attached to the upright, in particular welded thereon.
A rapid elevation floor system, for disposing over the bottom of a pool, comprising a raisable floor including: (a) an inner elongated modular floor element; (b) at least two peripheral elongated modular floor elements, having a peripheral elongated modular floor element ballasting receptacle portion outer facet; (c) at least one cross intersection modular floor element; (d) at least two T- intersection modular floor elements; and (e) at least two corner modular floor elements, wherein each of said corner modular floor elements is operatively connected to two of said peripheral elongated modular floor elements, wherein each of said T-intersection modular floor elements is operatively connected to two peripheral elongated modular floor elements, wherein each of said inner elongated modular floor elements is operatively connected to one of said T-intersection modular floor elements, and to said at least one cross intersection modular floor elements, and wherein said raisable floor has a raisable floor upper surface, wherein each one of said inner elongated modular floor elements includes: (i) an inner elongated modular floor element ballasting receptacle portion, that can contain fluids, said inner elongated modular floor element ballasting receptacle portion having at least one top facet of inner elongated modular floor element ballasting receptacle portion; (ii) an inner elongated modular floor element upper portion, disposed on said inner elongated modular floor element ballasting receptacle portion; and (iii) an elongated flotation fluid conducting tubing mounted inside said inner elongated modular floor element upper portion. (a) an inner elongated modular floor element; (b) at least two peripheral elongated modular floor elements, having a peripheral elongated modular floor element ballasting receptacle portion outer facet; (c) at least one cross intersection modular floor element; (d) at least two T- intersection modular floor elements; and (e) at least two corner modular floor elements, (i) an inner elongated modular floor element ballasting receptacle portion, that can contain fluids, said inner elongated modular floor element ballasting receptacle portion having at least one top facet of inner elongated modular floor element ballasting receptacle portion; (ii) an inner elongated modular floor element upper portion, disposed on said inner elongated modular floor element ballasting receptacle portion; and (iii) an elongated flotation fluid conducting tubing mounted inside said inner elongated modular floor element upper portion.
Differential group for a heavy vehicle, said differential group comprising a casing defining a space, a differential and a transmission housed inside said space, said differential being configured to divide an input torque from a drive source to said differential group to a torque of axle shafts (4, 5) of said vehicle coaxial around an axis, said transmission being operatively interposed between said drive source and said differential and comprising a first and a second shaft (16, 17) extending along respective axes (B, C) parallel to each other and perpendicular to said axis of said axle shafts (4, 5) and being supported rotationally free with respect to said casing, characterized in that said shafts (16, 17) each comprising a first portion (16', 17') and a second portion (16", 17"), each shaft (16, 17) comprising a first toothed wheel (25, 26) rigidly carried by the respective first portion (16 ', 17') and a second toothed wheel (18, 19) rigidly carried by the respective second portion (16", 17"), said first gear wheels (25, 26) meshing with each other according to a predefined transmission ratio and said second gear wheels each meshing with a respective toothing (23, 24) made on a carrier of said differential according to respective transmission reports, said first and second portions (16', 16", 17', 17") of said shafts (16', 17) being selectively alternately connectable to each other to allow the torque supplied by said driving source to pass to said differential according to a different transmission ratio. said differential being configured to divide an input torque from a drive source to said differential group to a torque of axle shafts (4, 5) of said vehicle coaxial around an axis, said transmission being operatively interposed between said drive source and said differential and comprising a first and a second shaft (16, 17) extending along respective axes (B, C) parallel to each other and perpendicular to said axis of said axle shafts (4, 5) and being supported rotationally free with respect to said casing, characterized in that said shafts (16, 17) each comprising a first portion (16', 17') and a second portion (16", 17"), each shaft (16, 17) comprising a first toothed wheel (25, 26) rigidly carried by the respective first portion (16 ', 17') and a second toothed wheel (18, 19) rigidly carried by the respective second portion (16", 17"), said first gear wheels (25, 26) meshing with each other according to a predefined transmission ratio and said second gear wheels each meshing with a respective toothing (23, 24) made on a carrier of said differential according to respective transmission reports, said first and second portions (16', 16", 17', 17") of said shafts (16', 17) being selectively alternately connectable to each other to allow the torque supplied by said driving source to pass to said differential according to a different transmission ratio.
A method performed in a target base station, the method comprising: receiving a handover request from a source base station indicating handover of a user equipment from the source base station to the target base station; determining resources to be persistently allocated for the user equipment to communicate with the target base station; preparing a handover request acknowledgment including a transparent container comprising allocation data identifying the resources to be persistently allocated for the user equipment; and sending the handover request acknowledgment to the source base station. receiving a handover request from a source base station indicating handover of a user equipment from the source base station to the target base station; determining resources to be persistently allocated for the user equipment to communicate with the target base station; preparing a handover request acknowledgment including a transparent container comprising allocation data identifying the resources to be persistently allocated for the user equipment; and sending the handover request acknowledgment to the source base station.
A fuel system comprising: a pump unit (110; 210; 300) that supplies pressurized flow, the pump unit includes a fixed displacement pump; a fuel control assembly receiving flow from the pump unit (110, 210; 300), the fuel control assembly including at least one metering valve (130, 230; 350) and at least one throttling valve (140; 240; 360); and characterised by a control for the fixed displacement pump receiving first and second signals (160, 170; 260, 270; 342, 344) indicative of a pressure differential across the at least one throttling valve (140; 240; 360), or across the at least one metering valve/at least one throttling valve combination, for altering operation of the fixed displacement pump in response to the pressure differential; wherein that the first signal (160; 260; 342, 344) is received from downstream of the at least one metering valve (130, 230; 350) and upstream of the at least one throttling valve (140; 240; 360). a pump unit (110; 210; 300) that supplies pressurized flow, the pump unit includes a fixed displacement pump; a fuel control assembly receiving flow from the pump unit (110, 210; 300), the fuel control assembly including at least one metering valve (130, 230; 350) and at least one throttling valve (140; 240; 360); and characterised by a control for the fixed displacement pump receiving first and second signals (160, 170; 260, 270; 342, 344) indicative of a pressure differential across the at least one throttling valve (140; 240; 360), or across the at least one metering valve/at least one throttling valve combination, for altering operation of the fixed displacement pump in response to the pressure differential; wherein that the first signal (160; 260; 342, 344) is received from downstream of the at least one metering valve (130, 230; 350) and upstream of the at least one throttling valve (140; 240; 360).
Apparatus for processing data, comprising: processing circuitry to perform processing operations in a selected exception level state of a hierarchy of exception level state extending between a top exception level state and a bottom exception level state; and decoder circuitry to decode program instructions to generate control signals to control said processing circuitry to perform said processing operations, said processing operations including vector processing operations using at least one vector operand; wherein said decoder circuitry is responsive to a vector operand bit size dependent program instruction executed in said selected exception level state to control said processing circuitry to perform vector processing operations dependent upon a vector operand bit size limit value of said selected exception level state and at least one programmable vector operand bit size limit value of an exception level state closer to said top exception level state within said hierarchy than said selected exception level state. processing circuitry to perform processing operations in a selected exception level state of a hierarchy of exception level state extending between a top exception level state and a bottom exception level state; and decoder circuitry to decode program instructions to generate control signals to control said processing circuitry to perform said processing operations, said processing operations including vector processing operations using at least one vector operand; wherein said decoder circuitry is responsive to a vector operand bit size dependent program instruction executed in said selected exception level state to control said processing circuitry to perform vector processing operations dependent upon a vector operand bit size limit value of said selected exception level state and at least one programmable vector operand bit size limit value of an exception level state closer to said top exception level state within said hierarchy than said selected exception level state.