mhurhangee/ep-ind-claims huggingface dataset:
A wing airframe (36, 100) for a wing (18, 102, 200) of a tiltrotor aircraft, the tiltrotor aircraft including a pylon assembly (30a, 30b) subject to aeroelastic movement during forward flight, and the wing (18, 102, 200) subject to deflection in response to the aeroelastic movement of the pylon assembly (30a, 30b), comprising: a wing airframe core assembly (54, 110, 206); and a wing skin assembly (24, 118) disposed on the wing airframe core assembly (54, 110), the wing skin assembly (24, 118) including an outer skin (52, 130, 208) and a damping sublayer (50, 128, 204), the damping sublayer interposed between the outer skin and the wing airframe core assembly; wherein the wing skin assembly further comprises an inner skin interposed between the damping sublayer (50, 128, 204) and the wing airframe core assembly (54, 110, 206) such that the damping sublayer is sandwiched between the inner and outer skins; wherein the damping sublayer (50, 128, 204), the outer skin (52, 130, 208) and the inner skin have aligned forward and aft edges; wherein the damping sublayer (50, 128, 204) is configured to reduce the deflection of the wing, thereby stabilizing the wing during forward flight; and characterised in that the damping sublayer (50, 128, 204) further comprises an elastomeric material including a rubber compound having a loss tangent greater than natural rubber. a wing airframe core assembly (54, 110, 206); and a wing skin assembly (24, 118) disposed on the wing airframe core assembly (54, 110), the wing skin assembly (24, 118) including an outer skin (52, 130, 208) and a damping sublayer (50, 128, 204), the damping sublayer interposed between the outer skin and the wing airframe core assembly; wherein the wing skin assembly further comprises an inner skin interposed between the damping sublayer (50, 128, 204) and the wing airframe core assembly (54, 110, 206) such that the damping sublayer is sandwiched between the inner and outer skins; wherein the damping sublayer (50, 128, 204), the outer skin (52, 130, 208) and the inner skin have aligned forward and aft edges; wherein the damping sublayer (50, 128, 204) is configured to reduce the deflection of the wing, thereby stabilizing the wing during forward flight; and characterised in that the damping sublayer (50, 128, 204) further comprises an elastomeric material including a rubber compound having a loss tangent greater than natural rubber.
A Silicon Carbide, SiC, semiconductor device comprising: a multi-step negative bevel edge termination that approximates a smooth slope defined by a slope angle (a); a semiconductor layer of a first conductivity type; wherein a surface of the semiconductor layer in an edge region of the semiconductor layer is counter-doped with ions of a second conductivity type to thereby provide a neutral region in the semiconductor layer such that an interface between the neutral region and a remainder of the semiconductor layer provides the multi-step negative bevel edge termination. a multi-step negative bevel edge termination that approximates a smooth slope defined by a slope angle (a); a semiconductor layer of a first conductivity type; wherein a surface of the semiconductor layer in an edge region of the semiconductor layer is counter-doped with ions of a second conductivity type to thereby provide a neutral region in the semiconductor layer such that an interface between the neutral region and a remainder of the semiconductor layer provides the multi-step negative bevel edge termination.
A bottom foot for supporting a washing machine and to be installed below a base of the washing machine, wherein a weighing sensor is installed on the bottom foot, a cavity with a downward opening is provided at a bottom of the bottom foot, the weighing sensor is installed in the cavity via a supporting piece in a closed manner, the supporting piece comprises a supporting unit and a fixing unit, the supporting unit comprises a supporting body and is installed in the cavity movably through the fixing unit, an upper end surface of the supporting unit is in contact with the weighing sensor, and a lower end surface of the supporting unit is to be supported on the ground, the supporting unit comprises a supporting sheet provided below the weighing sensor and a rubber foot provided below the supporting sheet, wherein the rubber foot is a cylindrical structure, the supporting sheet is a disc structure which is inverted on an upper end of the rubber foot, and an outer circumference of the rubber foot is provided with an annular convex rib, and the fixing unit is an annular fixing seat, a lower end of the supporting body is passed through the hollow portion of the annular fixing seat, and the fixing seat supports below the annular convex rib and is fixedly connected with the bottom foot. a weighing sensor is installed on the bottom foot, a cavity with a downward opening is provided at a bottom of the bottom foot, the weighing sensor is installed in the cavity via a supporting piece in a closed manner, the supporting piece comprises a supporting unit and a fixing unit, the supporting unit comprises a supporting body and is installed in the cavity movably through the fixing unit, an upper end surface of the supporting unit is in contact with the weighing sensor, and a lower end surface of the supporting unit is to be supported on the ground, the supporting unit comprises a supporting sheet provided below the weighing sensor and a rubber foot provided below the supporting sheet, wherein the rubber foot is a cylindrical structure, the supporting sheet is a disc structure which is inverted on an upper end of the rubber foot, and an outer circumference of the rubber foot is provided with an annular convex rib, and the fixing unit is an annular fixing seat, a lower end of the supporting body is passed through the hollow portion of the annular fixing seat, and the fixing seat supports below the annular convex rib and is fixedly connected with the bottom foot.
A method of processing a projection data set of an object of interest, wherein the projection data set is acquired by means of a source of electro-magnetic radiation generating a beam and by means of a radiation detector detecting the beam, wherein the projection data set in a first geometry comprises a first focus data set and a second focus data set; wherein the first focus data set is acquired at a first position of a focal spot relative to the detector of the electro-magnetic radiation emitted from the source; and wherein the second focus data set is acquired at a second position of a focal spot relative to the detector of the electro-magnetic radiation emitted from the source, the method comprising the steps of: - rebinning the projection data set from the first geometry to a second geometry, resulting in a first rebinned projection data set; wherein a second radial resolution of the first rebinned projection data set in the second geometry is higher than a first radial resolution of the projection data set in the first geometry; - rebinning the first rebinned projection data set from the second geometry to a third geometry, resulting in a second rebinned projection data set; wherein the second rebinned projection data set comprises a third focus data set; and wherein a third radial resolution of the third focus data set is higher than the first radial resolution of the projection data set in the first geometry; wherein the first geometry is one of a fan-beam geometry and a cone-beam geometry; wherein the second geometry is a parallel-beam geometry; and wherein the third geometry is one of a fan-beam geometry and a cone-beam geometry. wherein the rebinning of the projection data set from the first geometry to the second geometry is performed by a first angular interpolation; and wherein the rebinning of the projection data set from the second geometry to the third geometry is performed by a second angular interpolation; and wherein the first and second angular interpolations are performed in a direction of a view-angle with a constant fan-angle. - rebinning the projection data set from the first geometry to a second geometry, resulting in a first rebinned projection data set; wherein a second radial resolution of the first rebinned projection data set in the second geometry is higher than a first radial resolution of the projection data set in the first geometry; - rebinning the first rebinned projection data set from the second geometry to a third geometry, resulting in a second rebinned projection data set; wherein the second rebinned projection data set comprises a third focus data set; and wherein a third radial resolution of the third focus data set is higher than the first radial resolution of the projection data set in the first geometry;
Method of establishing an enhanced oil recovery in an underground reservoir by means of a recovery system, the recovery system comprising at least one injection and production well (IW, PW), the injection well comprising an injection pump system, the injection pump system establishing an injection stream comprising a first injection stream and a second injection stream, wherein said injection stream comprises enzyme added at the injection well, the injection pump system establishing an injection stream through the injection well, the injection pump system being coupled with a power supply system, the production well comprising at least one fluid output, the injection well and the production well actively establishing an underground water stream, the underground water stream being established in response to pressure established by the injection pump system, the underground water stream comprising water injected by injection pump system, where C en,3 is the enzyme concentration of said injection stream, C e n,3 = C e n,1 ⋅ S 1 + C e n,2 ⋅ S 2 S 1 + S 2 where C en,1 and C en, 2 are the enzyme concentration of the first and second injection stream respectively, S 1 and S 2 are flow rates of the first and second injection streams respectively, wherein the injection pump system comprises two pump systems; a carrier fluid pump system (CFPS) and an enzyme pump system, the carrier fluid pump system (CFPS) establishing a first injection stream, the enzyme pump system establishing a second injection stream, and wherein the underground water stream comprises water injected by carrier fluid pump system (CFPS) and enzyme solution injected by the enzyme pump system, and characterized in that the enzyme concentration in the mixed first and second injection streams are reduced gradually over a period of at least one year.
A process for producing a liquid fuel from a gas containing at least about 50% methane by volume, said process comprising: (a) contacting said gas with (i) a liquid feedstock consisting of crude oil or a liquid petroleum fraction and (ii) a metallic catalyst grid, both said liquid feedstock and said metallic catalyst grid contained in a reaction vessel, at a temperature of about 80°C or above but below the boiling temperature of said crude oil, said metallic catalyst grid comprising windings of a transition metal supported on an iron frame; (b) recovering a gaseous reaction product formed in said reaction vessel; and (c) condensing said gaseous reaction product to said liquid fuel. (a) contacting said gas with (i) a liquid feedstock consisting of crude oil or a liquid petroleum fraction and (ii) a metallic catalyst grid, both said liquid feedstock and said metallic catalyst grid contained in a reaction vessel, at a temperature of about 80°C or above but below the boiling temperature of said crude oil, said metallic catalyst grid comprising windings of a transition metal supported on an iron frame; (b) recovering a gaseous reaction product formed in said reaction vessel; and (c) condensing said gaseous reaction product to said liquid fuel.
A refrigerator, comprising: a main body; a storage room formed inside the main body; a frame disposed in the storage room, the frame having a guide extending in a front-rear direction of the storage room; and a plurality of shelves movable along the guide, the plurality of shelves including a first shelf and a second shelf, the first shelf including a first surface and a second surface opposite to the first surface, characterized in that, when the first shelf is coupled with the guide such that the first surface of the first shelf is arranged to face upwards, the first shelf is placed in front of the second shelf, and when the first shelf is coupled with the guide such that the second surface of the first shelf is arranged to face upwards, the first shelf is movable along the guide to be positioned below the second shelf. a main body; a storage room formed inside the main body; a frame disposed in the storage room, the frame having a guide extending in a front-rear direction of the storage room; and a plurality of shelves movable along the guide, the plurality of shelves including a first shelf and a second shelf, the first shelf including a first surface and a second surface opposite to the first surface, characterized in that, when the first shelf is coupled with the guide such that the first surface of the first shelf is arranged to face upwards, the first shelf is placed in front of the second shelf, and when the first shelf is coupled with the guide such that the second surface of the first shelf is arranged to face upwards, the first shelf is movable along the guide to be positioned below the second shelf.
A method performed by a user equipment, UE, the method comprising: at the UE, maintaining a count of transition indication messages sent by the UE while in a first radio resource control, RRC state, wherein the UE is inhibited from sending any more than a predetermined maximum number of transition indication messages while the UE is in the first RRC state; entering from the first RRC state a more battery intensive RRC state than the first RRC state as a result of having sent by the UE a transition indication message while in the first RRC state; and resetting the count of the transition indication messages responsive to entering the more battery intensive RRC state. at the UE, maintaining a count of transition indication messages sent by the UE while in a first radio resource control, RRC state, wherein the UE is inhibited from sending any more than a predetermined maximum number of transition indication messages while the UE is in the first RRC state; entering from the first RRC state a more battery intensive RRC state than the first RRC state as a result of having sent by the UE a transition indication message while in the first RRC state; and resetting the count of the transition indication messages responsive to entering the more battery intensive RRC state.
Ergonomic workstation comprising an efficiently loadable carrier system for an ergonomically adjustable workstation, comprising at least one pivot assembly comprising a rear profile and a lateral profile (21 - 23) connected thereto at an angle, and a support rail which is arranged pivotably on a first slider (64 - 66, 67) and on a second slider (61 - 63, 67), the first slider (64 - 66, 67) being movably arranged on the rear profile (11 - 13) and the second slider (61 - 63, 67) being movably arranged on the lateral profile (21 - 23) characterized in that the pivoting movement of the support rail is parallel to a horizontally extending plane being spanned by the first rear profile (11 - 13) and the first lateral profile (21 - 23), and the support system is configured for receiving at least one container, the workstation further comprising a shelf system for receiving and storing at least one container, the shelf system comprising at least one shelf level and the at least one shelf level has one stop each, which prevents the at least one container stored in the shelf system from falling out, the shelf system being arranged to a rear side of the carrier system. comprising at least one pivot assembly comprising a rear profile and a lateral profile (21 - 23) connected thereto at an angle, and a support rail which is arranged pivotably on a first slider (64 - 66, 67) and on a second slider (61 - 63, 67), the first slider (64 - 66, 67) being movably arranged on the rear profile (11 - 13) and the second slider (61 - 63, 67) being movably arranged on the lateral profile (21 - 23) characterized in that the pivoting movement of the support rail is parallel to a horizontally extending plane being spanned by the first rear profile (11 - 13) and the first lateral profile (21 - 23), and the support system is configured for receiving at least one container, the workstation further comprising a shelf system for receiving and storing at least one container, the shelf system comprising at least one shelf level and the at least one shelf level has one stop each, which prevents the at least one container stored in the shelf system from falling out, the shelf system being arranged to a rear side of the carrier system.
A detergent, comprising a) 5 to 15 wt.% anionic surfactant; and b) 0.01 to 1 wt.% of a hydrophobically modified, cationic polymer, which contains a polysaccharide selected from the group consisting of cellulose and cellulose derivatives as the skeleton, wherein the anionic surfactant comprises a mixture made of at least three anionic surfactant compounds. a) 5 to 15 wt.% anionic surfactant; and b) 0.01 to 1 wt.% of a hydrophobically modified, cationic polymer, which contains a polysaccharide selected from the group consisting of cellulose and cellulose derivatives as the skeleton,
A method for detecting an event on a sports track during a sports event comprising: providing at least two track segments across a width of the sports track, the at least two track segments (I, II) being disposed side by side across the width of the sports track; detecting, using a detector per track segment, passage of participants of the sports event for each of the at least two track segments separately to obtain for each of the at least two track segments a number of participants having passed the respective track segment (I, II) in a particular time interval; comparing (2-II) each of the obtained numbers of passed participants with an electronically available known track segment passage result for the corresponding track segment (I, II); detecting (2-III) an event on the sports track when at least one of the obtained numbers of passed participants deviates by at least a deviation margin from the known track segment passage result for the corresponding track segment (I, II); generating an alert signal in response to detecting the event; transmitting the alert signal to an operator device; and the operator device modifying settings of a detection system or resetting the detection system without direct manual operation by an operator of the operator device based on the alert signal. providing at least two track segments across a width of the sports track, the at least two track segments (I, II) being disposed side by side across the width of the sports track; detecting, using a detector per track segment, passage of participants of the sports event for each of the at least two track segments separately to obtain for each of the at least two track segments a number of participants having passed the respective track segment (I, II) in a particular time interval; comparing (2-II) each of the obtained numbers of passed participants with an electronically available known track segment passage result for the corresponding track segment (I, II); detecting (2-III) an event on the sports track when at least one of the obtained numbers of passed participants deviates by at least a deviation margin from the known track segment passage result for the corresponding track segment (I, II); generating an alert signal in response to detecting the event; transmitting the alert signal to an operator device; and the operator device modifying settings of a detection system or resetting the detection system without direct manual operation by an operator of the operator device based on the alert signal.
A device for injecting a mixture of pressurized air and fuel into a combustion chamber of a turbomachine, the injection device having a symmetry of revolution about an axis and comprising, arranged from upstream to downstream in the gas flow direction, a sliding bushing at the center of which is positioned an injector, an annular cup maintaining the sliding bushing axially, an internal radial swirler provided with vanes directing the pressurized air toward the inside of the injection device, a venturi, the internal radial swirler being connected by its downstream end to a bowl, the sliding bushing comprising, arranged from upstream to downstream, a convergent conical portion continuing into a cylindrical portion connected to an annular flange extending radially outward, the bowl comprising an external cylindrical wall having an upstream end and a downstream end, the external cylindrical wall being continued at its downstream end by a divergent provided, downstream, with a collar having the form of a ring extending radially outward, the divergent of the bowl being connected, immediately upstream of the collar, by a connecting wall to a cylindrical ring, the cylindrical ring and the connecting wall forming a connection rim oriented in the upstream direction, the connecting wall of the connection rim of the bowl being provided with a row of cooling orifices characterized in that at least one row of vortex holes is formed in the external cylindrical wall of the bowl close to the upstream end of the external cylindrical wall, and in that the cooling orifices are inclined axially at an angle γ to the axis of the injection device, and in that the vortex holes are inclined axially at an angle α2 to the axis of the injection device.
A method for controlling a photovoltaic module, applied to a shutdown apparatus for a photovoltaic module, wherein the shutdown apparatus comprises a controller and a combination of execution devices; wherein the combination of execution devices comprises a first switch, a second switch, a first driving unit, a second driving unit, an input voltage (Uin) detecting unit, and an output voltage (Uout) detecting unit, the first switch is arranged on a positive cable or a negative cable of the photovoltaic module, the second switch is arranged between the positive cable and the negative cable of the photovoltaic module; wherein the method comprises: detecting, by the input voltage detecting module, an input voltage of the combination of execution devices; detecting, by the output voltage detecting module, an output voltage of the combination of execution devices; and controlling, by the controller, the first switch to be switched on by the first driving unit in a normal power generation state, and controlling, by the controller, the first switch to be switched off by the first driving unit in a shutdown state; determining, by the controller after the first switch is controlled to be switched off, whether a short circuit fault occurs in the first switch based on the input voltage and the output voltage of the combination of execution devices; and controlling, by the controller, the second switch to be switched on by the second driving unit if the short circuit fault occurs in the first switch. detecting, by the input voltage detecting module, an input voltage of the combination of execution devices; detecting, by the output voltage detecting module, an output voltage of the combination of execution devices; and controlling, by the controller, the first switch to be switched on by the first driving unit in a normal power generation state, and controlling, by the controller, the first switch to be switched off by the first driving unit in a shutdown state; determining, by the controller after the first switch is controlled to be switched off, whether a short circuit fault occurs in the first switch based on the input voltage and the output voltage of the combination of execution devices; and controlling, by the controller, the second switch to be switched on by the second driving unit if the short circuit fault occurs in the first switch.