mhurhangee/ep-ind-claims huggingface dataset:
A core catcher having an integrated cooling path, which is installed under a nuclear reactor pressure container to retain and cool a molten core material discharged through a damaged part of the nuclear reactor pressure container, thereby preventing interaction between the molten core material and a pressure-holding structure of a nuclear reactor building during a major incident in a nuclear power station, the core catcher being characterised by a main container in the shape of a butterfly roof, i.e. a V-shaped, inverted roof, which is provided underneath the nuclear reactor pressure container to collect the molten core material onto a central inclined surface thereof; a lower structure which forms a cooling path in a space between the lower structure and the bottom surface of the main container to remove heat of the molten core material; a plurality of supports in the shape of protrusions, which support the space between the bottom surface of the main container and the upper surface of the lower structure and which are dispersed at a predetermined distance, thereby allowing the cooling path to have a piloti structure, wherein the cooling path is an integrated cooling path that has no partition therein owing to the plurality of supports dispersed at a predetermined distance and comprises an inclined type cooling path parallel to the inclined surface of the main container.
A mixer assembly for a gas turbine engine combustor, said mixer assembly comprising: a pilot mixer for directing a fluid flow comprising a mixture of fuel and air downstream into a combustion chamber; a premixer extending circumferentially around said pilot mixer for directing a fluid flow comprising a mixture of fuel and air downstream into the combustion chamber; an air swirler for channeling fluid flow therethrough into said premixer; a dome plate extending downstream from said air swirler; and a heat shield extending downstream from at least one of said air swirler and said dome plate, said heat shield comprising a downstream side and an upstream side, at least one of said premixer and said dome plate comprising at least one cooling opening configured to receive cooling fluid for impingement cooling at least a portion of said heat shield; characterised in that said heat shield further comprises at least one opening extending therethrough, said at least one opening oriented such that after said impingement cooling, spent cooling fluid is discharged radially inwardly into said premixer. a pilot mixer for directing a fluid flow comprising a mixture of fuel and air downstream into a combustion chamber; a premixer extending circumferentially around said pilot mixer for directing a fluid flow comprising a mixture of fuel and air downstream into the combustion chamber; an air swirler for channeling fluid flow therethrough into said premixer; a dome plate extending downstream from said air swirler; and a heat shield extending downstream from at least one of said air swirler and said dome plate, said heat shield comprising a downstream side and an upstream side, at least one of said premixer and said dome plate comprising at least one cooling opening configured to receive cooling fluid for impingement cooling at least a portion of said heat shield; characterised in that said heat shield further comprises at least one opening extending therethrough, said at least one opening oriented such that after said impingement cooling, spent cooling fluid is discharged radially inwardly into said premixer.
A device for loading and unloading a tray (16, 216, 316) of a freeze-drying plant with a number of vials (18, 218, 318), with a transfer table (20, 220, 320) provided upstream of the freeze-drying plant for temporarily receiving the vials (18, 218, 318), and with a pusher device for displacing the vials (18, 218, 318) from the transfer table (20, 220, 320) onto the tray (16, 216, 316) or from the tray (16, 216, 316) onto the transfer table (20, 220, 320), the pusher device further including a right-hand and a left-hand transport carriage (30, 230, 330, 430), the pusher device further including a loading element (38, 438) and an unloading pusher (50, 450), the loading element (38, 438) being disposed outside of the freeze-drying plant whilst the unloading pusher (50, 450) is arranged inside the freeze-drying plant. characterized in that the pusher device (50, 450) can be placed onto the transport carriages (30, 230, 330, 430) for unloading the tray (16, 216, 316).
A height-adjustable joystick input device (300A, 300B, 400) comprising: a handle configured to receive a force exerted by a user; and a shaft coupled to the handle such that the force exerted on the handle is received on the shaft; wherein the handle comprises a fastening member releasably biased by a biasing member, such as a spring, to exert a force on an upper portion of the shaft in a direction substantially perpendicular to the height of the shaft in an engaged position; wherein the handle is displaceable along a height of the shaft when the fastening member is in a disengaged position; the device being characterized in that the handle comprises a lever having a first arm arranged substantially perpendicular to a second arm, the fastening member extending out from the second arm to abut the shaft at an upper portion of the shaft in the engaged position; wherein pulling the lever by the first arm out of the plane of the handle compresses the biasing member and causes the second arm to rotate such that the fastening member is in the disengaged position. a handle configured to receive a force exerted by a user; and a shaft coupled to the handle such that the force exerted on the handle is received on the shaft; wherein the handle comprises a fastening member releasably biased by a biasing member, such as a spring, to exert a force on an upper portion of the shaft in a direction substantially perpendicular to the height of the shaft in an engaged position; wherein the handle is displaceable along a height of the shaft when the fastening member is in a disengaged position; the device being characterized in that the handle comprises a lever having a first arm arranged substantially perpendicular to a second arm, the fastening member extending out from the second arm to abut the shaft at an upper portion of the shaft in the engaged position; wherein pulling the lever by the first arm out of the plane of the handle compresses the biasing member and causes the second arm to rotate such that the fastening member is in the disengaged position.
A rubber composition, usable in particular for manufacturing a pneumatic tyre, including at least one diene elastomer, a reinforcing filler, a crosslinking system, between 0.2 and 10 phr (parts per hundred of rubber) of an antioxidant and between 0.2 and 10 phr of an alkaline or alkaline earth metal acetylacetonate.
Device for measuring fluidity of molten metal, wherein said device comprises a runway for molten metal, and an upper side of the device comprises an inlet hole for filling molten metal into the runway, characterized in that the runway comprises refractory fibre.
A method of temporarily changing the refractive index of an optical fiber containing a longitudinal electrode arranged in the cladding of said fiber along and parallel to the core of the fiber, wherein the change in refractive index is performed by applying a high voltage pulse to said longitudinal electrode, said high voltage pulse having a duration sufficiently short to prevent melting of the electrode, such that the electrode thermally expands through ohmic heating without melting and exerts a pressure on the fiber core to induce said temporary change of the refractive index, characterised in that the high voltage pulse has a magnitude of at least 100 volts and a duration of less than 100 nanoseconds.
A communication control method used in a user equipment that performs early data transmission in which uplink user data is transmitted during a random access procedure, the method comprising: receiving from a base station, a first timer value for a random access procedure without the early data transmission and a second timer value for a random access procedure with the early data transmission, the second timer value being larger than the first timer value; selecting the second timer value in response to determining that the user equipment performs the early data transmission; starting a timer configured with the second timer value in response to transmitting the uplink data by the early data transmission; and monitoring of PDCCH for receiving Msg 4 until the timer is expired. receiving from a base station, a first timer value for a random access procedure without the early data transmission and a second timer value for a random access procedure with the early data transmission, the second timer value being larger than the first timer value; selecting the second timer value in response to determining that the user equipment performs the early data transmission; starting a timer configured with the second timer value in response to transmitting the uplink data by the early data transmission; and monitoring of PDCCH for receiving Msg 4 until the timer is expired.
A cannula insertion mechanism, comprising: a cannula carrier (612, 612a); a cannula (641, 641a), the cannula being configured to receive fluid from a fluid reservoir (336, 436, 536); and a cannula seal (630, 630a) comprising a plurality of seal rings (631, 631a) and a top; wherein the cannula carrier is configured to provide an enhanced cannula seal by increasing contact between the cannula carrier and the plurality of seal rings with increased radial clamping forces on the cannula seal due to downward compression forces on the top of the cannula seal, wherein the downward compression forces on the top of the cannula seal expand the cannula seal radially, increasing the radial forces exerted by the plurality of seal rings against the cannula carrier. a cannula carrier (612, 612a); a cannula (641, 641a), the cannula being configured to receive fluid from a fluid reservoir (336, 436, 536); and a cannula seal (630, 630a) comprising a plurality of seal rings (631, 631a) and a top; wherein the cannula carrier is configured to provide an enhanced cannula seal by increasing contact between the cannula carrier and the plurality of seal rings with increased radial clamping forces on the cannula seal due to downward compression forces on the top of the cannula seal, wherein the downward compression forces on the top of the cannula seal expand the cannula seal radially, increasing the radial forces exerted by the plurality of seal rings against the cannula carrier.
Heatable covering system for floors, ceiling and walls comprising: - covering panels with a decorative top side and a bottom side; wherein - the covering panels comprise at least on one longitudinal edge coupling means (13, 14) in order to join the covering panels to each other and wherein - the covering panels comprise electric heating means and the covering panels have electric contacting means in order to electrically connect the panels with each other, wherein the electric contact means are arranged at least partially at the coupling means (13, 14), so that by means of assembling of corresponding coupling means (13, 14) of two panels, an electrical connection between these panels is producible, - characterized in that the electric heating means consist of a panel heating of an electrically conducting coating, wherein the electrically conducting coating consists of a fluid which is applied in a wet condition on the covering panels and is dried subsequently, wherein the electric heating means are arranged on the bottom side of the covering panels. - covering panels with a decorative top side and a bottom side; wherein - the covering panels comprise at least on one longitudinal edge coupling means (13, 14) in order to join the covering panels to each other and wherein - the covering panels comprise electric heating means and the covering panels have electric contacting means in order to electrically connect the panels with each other, wherein the electric contact means are arranged at least partially at the coupling means (13, 14), so that by means of assembling of corresponding coupling means (13, 14) of two panels, an electrical connection between these panels is producible, - characterized in that the electric heating means consist of a panel heating of an electrically conducting coating, wherein the electrically conducting coating consists of a fluid which is applied in a wet condition on the covering panels and is dried subsequently, wherein the electric heating means are arranged on the bottom side of the covering panels.
A support and guiding system of doors for sliding door closets, comprising carriages on an upper part of a door with bearings with horizontal axis sliding in a track arranged on a plane of the closet, and carriages on a lower part of the door with bearings with vertical axis sliding in a track placed under a plane of the closet, characterised in that said upper track is made of at least two sections (20', 20") joined by a joint and said upper carriages have a double bearing (11, 12), a first of said bearings being normally engaged with a corresponding first track or guide, the second of said bearings going into engagement with a corresponding second track or guide at said joint producing the detachment of the first bearing from the corresponding first track or guide, wherein said bearings (11, 12) of the upper carriages are coaxial and of the same diameter, and said second track of the joint of engaging of said second bearing has a height at the ends equal to or slightly lower than the height of the first bearing engagement track, the height gradually increasing towards the centre, at the area of joining between the two track sections (20', 20") exceeding the height of the first track.
A method for management of evolved UMTS Terrestrial Radio Access Network-E-UTRAN handover, the method comprising: performing measurements by a user equipment-UE, at the UE, to determine in-device coexistence-IDC interference occurring with radio communications of the E-UTRAN; performing a UE implementation of the handover management, at the UE, to prevent handover comprising: receipt and processing by the UE of a reference signal received from the E-UTRAN, and communication of pessimistic signal quality measurements of the reference signal received from the E-UTRAN, wherein pessimistic signal quality measurements comprise measurement result values that are lower than actual measurement results; and transmitting an indication of the IDC interference to a radio access network by the UE, wherein the indication of the IDC interference includes the pessimistic measurements; wherein a UMTS Terrestrial Radio Access Network-UTRAN or a GSM EDGE Radio Access Network-GERAN refrains from performing a handover from the UTRAN or the GERAN to the E-UTRAN in response to the indication of the IDC interference. performing measurements by a user equipment-UE, at the UE, to determine in-device coexistence-IDC interference occurring with radio communications of the E-UTRAN; performing a UE implementation of the handover management, at the UE, to prevent handover comprising: receipt and processing by the UE of a reference signal received from the E-UTRAN, and communication of pessimistic signal quality measurements of the reference signal received from the E-UTRAN, wherein pessimistic signal quality measurements comprise measurement result values that are lower than actual measurement results; and receipt and processing by the UE of a reference signal received from the E-UTRAN, and communication of pessimistic signal quality measurements of the reference signal received from the E-UTRAN, wherein pessimistic signal quality measurements comprise measurement result values that are lower than actual measurement results; and transmitting an indication of the IDC interference to a radio access network by the UE, wherein the indication of the IDC interference includes the pessimistic measurements; wherein a UMTS Terrestrial Radio Access Network-UTRAN or a GSM EDGE Radio Access Network-GERAN refrains from performing a handover from the UTRAN or the GERAN to the E-UTRAN in response to the indication of the IDC interference.
A compliant personal care article, comprising: a) a composition comprising: i) from 20% to 80%, by weight of the composition, of a surfactant; and ii) from 3% to 40%, by weight of the composition, of a water-insoluble hygroscopic filament comprising a fiber and a fine, wherein the fine is both primary and secondary fines which are water-insoluble materials that pass through a 200 mesh screen under conditions defined in the TAPPI method T-261, wherein the total amount of a water-insoluble hygroscopic fine, fiber, or filament is from 3% to 40% by weight of the composition; and iii) a solvent; and b) a first substrate; wherein the article has a compliance value of 0.01 kg/mm to 1.5 kg/mm before a first simulated use as measured according to the Compliance Test. a) a composition comprising: i) from 20% to 80%, by weight of the composition, of a surfactant; and ii) from 3% to 40%, by weight of the composition, of a water-insoluble hygroscopic filament comprising a fiber and a fine, wherein the fine is both primary and secondary fines which are water-insoluble materials that pass through a 200 mesh screen under conditions defined in the TAPPI method T-261, wherein the total amount of a water-insoluble hygroscopic fine, fiber, or filament is from 3% to 40% by weight of the composition; and iii) a solvent; and i) from 20% to 80%, by weight of the composition, of a surfactant; and ii) from 3% to 40%, by weight of the composition, of a water-insoluble hygroscopic filament comprising a fiber and a fine, wherein the fine is both primary and secondary fines which are water-insoluble materials that pass through a 200 mesh screen under conditions defined in the TAPPI method T-261, wherein the total amount of a water-insoluble hygroscopic fine, fiber, or filament is from 3% to 40% by weight of the composition; and iii) a solvent; and b) a first substrate; wherein the article has a compliance value of 0.01 kg/mm to 1.5 kg/mm before a first simulated use as measured according to the Compliance Test.
A sensor comprising: a core (20, 26) comprising - a rectangular substrate having a top surface, a bottom surface and four ends; - a layer of magnetically-permeable material disposed on at least one of said substrate top surface or said substrate bottom surface; wherein two ends (22 1, 22 2) of said substrate are rigidly coupled with each other so as to form a hollow cylinder, by means of one of solder, brazing material, material from laser welding and glue resulting from soldering, brazing, laser welding or gluing said two ends (22 1, 22 2) with each other; - the hollow cylinder forming a tube, such that said top surface is an outer surface of said tube and said bottom surface is an inner surface of said tube; and a wire-wound coil wound on said tube. a core (20, 26) comprising - a rectangular substrate having a top surface, a bottom surface and four ends; - a layer of magnetically-permeable material disposed on at least one of said substrate top surface or said substrate bottom surface; - a rectangular substrate having a top surface, a bottom surface and four ends; - a layer of magnetically-permeable material disposed on at least one of said substrate top surface or said substrate bottom surface; wherein two ends (22 1, 22 2) of said substrate are rigidly coupled with each other so as to form a hollow cylinder, by means of one of solder, brazing material, material from laser welding and glue resulting from soldering, brazing, laser welding or gluing said two ends (22 1, 22 2) with each other; - the hollow cylinder forming a tube, such that said top surface is an outer surface of said tube and said bottom surface is an inner surface of said tube; and - the hollow cylinder forming a tube, such that said top surface is an outer surface of said tube and said bottom surface is an inner surface of said tube; and a wire-wound coil wound on said tube.
A twin wire welding apparatus including a first contact tube for guiding a first consumable electrode toward a weld puddle and transferring welding current to the first consumable electrode, a second contact tube for guiding a second consumable electrode toward said weld puddle and transferring welding current to the second consumable electrode, and a single power source connected to said first and second contact tubes (2,10) for providing the same potential to said two consumable electrodes (4,12), characterized in that said twin wire welding apparatus further includes a feeding arrangement for feeding a cold wire into said weld puddle which is arranged to feed said cold wire essentially in parallel with a feeding direction of said two consumable electrodes (4, 12).
An antenna structure (20, 620), comprising: a radiative antenna element (220, 622) disposed in a first conductive layer (210, 65); a reflector ground plane (211, 611) disposed in a second conductive layer (210, 63) under the first conductive layer (210, 65); a feeding network comprising a transmission line (341, 641) disposed in a third conductive layer (340, 61) under the second conductive layer (210, 63), wherein a feeding terminal is disposed to electrically couple one end of the transmission line (341, 641) to the radiative antenna element (220, 622); and at least one coupling element (230a, 230b) disposed in proximity to the feeding terminal, wherein the at least one coupling element (230a, 230b) is capacitively coupled with the feeding terminal, wherein the radiative antenna element (220, 622) comprises a grid array antenna, wherein each of the at least one coupling element (230a, 230b) comprises a conductive pad (222a, 222b, 634) and a connector (212a, 212b, 614a) that electrically couples the conductive pad (222a, 222b, 634) to the reflector ground plane (211, 611), and wherein the at least one conductive pad (222a, 222b, 534) is disposed in the first conductive layer (210, 63) and is coplanar with the radiative antenna element (220, 622), wherein the grid array antenna comprises rectangular meshes of microstrip lines comprising long sides and short sides. a radiative antenna element (220, 622) disposed in a first conductive layer (210, 65); a reflector ground plane (211, 611) disposed in a second conductive layer (210, 63) under the first conductive layer (210, 65); a feeding network comprising a transmission line (341, 641) disposed in a third conductive layer (340, 61) under the second conductive layer (210, 63), wherein a feeding terminal is disposed to electrically couple one end of the transmission line (341, 641) to the radiative antenna element (220, 622); and at least one coupling element (230a, 230b) disposed in proximity to the feeding terminal, wherein the at least one coupling element (230a, 230b) is capacitively coupled with the feeding terminal, wherein the radiative antenna element (220, 622) comprises a grid array antenna, wherein each of the at least one coupling element (230a, 230b) comprises a conductive pad (222a, 222b, 634) and a connector (212a, 212b, 614a) that electrically couples the conductive pad (222a, 222b, 634) to the reflector ground plane (211, 611), and wherein the at least one conductive pad (222a, 222b, 534) is disposed in the first conductive layer (210, 63) and is coplanar with the radiative antenna element (220, 622), wherein the grid array antenna comprises rectangular meshes of microstrip lines comprising long sides and short sides.