mhurhangee/ep-ind-claims huggingface dataset:
Nuclear reactor comprising: a. A vessel delimited by an outer wall and a vessel bottom, b. An enclosure delimited by a substantially cylindrical inner wall, the enclosure being located inside the vessel in such a way that the inner wall and the outer wall define an injection circuit with a substantially annular cross-section, the low end of the enclosure being open in such a way as to allow a fluid, injected into the injection circuit, to circulate to the vessel bottom then to penetrate and to circulate through the enclosure, c. A core located inside the enclosure, d. A support element located at the bottom of the enclosure, the support being configured for maintaining control/command elements of the core, e. A diffusion element of flows configured for making the flow entering into the enclosure uniform, the diffusion element comprising a substantially circular flat surface portion, the flat portion including a plurality of orifices, characterised in that the diffusion element defines a mixing zone free of any obstacle between said diffusion element and the vessel bottom, and in that the orifices all have a circular cross-section of the same diameter, and in that the flat portion is located at a first distance from the support and at a second distance from the lower limit of the vessel bottom, the second distance being greater than the first distance, the first distance being ten times greater than the diameter of the orifices. a. A vessel delimited by an outer wall and a vessel bottom, b. An enclosure delimited by a substantially cylindrical inner wall, the enclosure being located inside the vessel in such a way that the inner wall and the outer wall define an injection circuit with a substantially annular cross-section, the low end of the enclosure being open in such a way as to allow a fluid, injected into the injection circuit, to circulate to the vessel bottom then to penetrate and to circulate through the enclosure, c. A core located inside the enclosure, d. A support element located at the bottom of the enclosure, the support being configured for maintaining control/command elements of the core, e. A diffusion element of flows configured for making the flow entering into the enclosure uniform, the diffusion element comprising a substantially circular flat surface portion, the flat portion including a plurality of orifices,
A method of manufacturing a scintillator panel configured to convert radiation into scintillation light, the method comprising: a first process of forming a plurality of convex sections that protrude in a predetermined direction from a rear surface toward a front surface and a concave section defined by the convex sections, on the front surface of the substrate having the front surface and the rear surface, the plurality of convex sections being periodically arranged on the front surface in a two-dimensional array; a second process of forming first scintillator units respectively extending from the convex sections of the substrate in the predetermined direction through crystal growth of a columnar crystal of a scintillator material; and characterised by a third process of radiating a laser beam to contact portions of the first scintillator units extending from the adjacent convex sections and separating the first scintillator units extending from the adjacent convex sections by scanning the concave section with the laser beam. a first process of forming a plurality of convex sections that protrude in a predetermined direction from a rear surface toward a front surface and a concave section defined by the convex sections, on the front surface of the substrate having the front surface and the rear surface, the plurality of convex sections being periodically arranged on the front surface in a two-dimensional array; a second process of forming first scintillator units respectively extending from the convex sections of the substrate in the predetermined direction through crystal growth of a columnar crystal of a scintillator material; and characterised by a third process of radiating a laser beam to contact portions of the first scintillator units extending from the adjacent convex sections and separating the first scintillator units extending from the adjacent convex sections by scanning the concave section with the laser beam.
An ultraviolet absorbing hardcoat comprising: a binder, and a mixture of ZnO nanoparticles in a range from 1 wt.% to 90 wt.%, based on the total weight of the hardcoat, wherein the ZnO nanoparticles have a silica coating thereon. a binder, and a mixture of ZnO nanoparticles in a range from 1 wt.% to 90 wt.%, based on the total weight of the hardcoat, wherein the ZnO nanoparticles have a silica coating thereon.
A data sending method, comprising: determining a bandwidth parameter based on a subcarrier spacing, wherein the bandwidth parameter is a quantity of subcarriers; determining transmit power based on the bandwidth parameter; and sending a data block on at least one of the subcarriers by using the transmit power. determining a bandwidth parameter based on a subcarrier spacing, wherein the bandwidth parameter is a quantity of subcarriers; determining transmit power based on the bandwidth parameter; and sending a data block on at least one of the subcarriers by using the transmit power.
Hydraulic brake system for a vehicle having at least two axles (VA, HA), in particular for a highly automated or autonomous vehicle, having at least two sub-brake systems (SubV, SubH) which are hydraulically separated from one another, wherein a first sub-brake system (SubV) comprises a first brake circuit, a main system, which has a first power supply and a first evaluation and control unit, characterized by a secondary system, which has a second power supply, which is independent of the first power supply, and a second evaluation and control unit, for redundantly generating pressure in the first brake circuit, and is assigned to a first axle having at least two wheel brakes (RB1, RB2), wherein the first brake circuit comprises a first pressure generator which is assigned to the main system, a second pressure generator which is assigned to the secondary system and is hydraulically connected in series between a first fluid container and the at least two wheel brakes (RB1, RB2) of the first axle, and a first modulation unit for hydraulically connecting the pressure generators (12, 22) to the at least two wheel brakes (RB1, RB2) and for performing individual brake pressure modulation in the at least two wheel brakes (RB1, RB2), wherein a second sub-brake system (SubH) comprises a second brake circuit and a subsidiary system, which has a third power supply and a third evaluation and control unit, for generating pressure in the second brake circuit, and is assigned to a second axle having at least two wheel brakes (RB3, RB4), wherein the second brake circuit comprises a third pressure generator which is assigned to the subsidiary system and is arranged between a second fluid container and the at least two wheel brakes (RB3, RB4) of the second axle, and a second modulation unit for hydraulically connecting the pressure generator to the at least two wheel brakes (RB3, RB4) and for performing individual brake pressure modulation in the at least two wheel brakes (RB3, RB4).
Mounting assembly (1; 15) for adjustably mounting a frame part, such as for example a reveal part of a door frame or window frame or the like, onto a wall or onto a reveal wall of a wall opening, the mounting assembly (1; 15) comprising a holder element (2; 16) having attachment means (23; 43) on which the frame part can be attached and adjustment means (20-22; 40-43) for adjusting the orientation of the holder element (2; 16) with respect to the reveal wall, and a fixing element for fixing the holder element (2; 16) onto the reveal wall, wherein the mounting assembly (1; 15) comprises a single fixing element which is provided for fixing the holder element (2; 16) on a single location to the reveal wall and that the fixing element comprises a pivot which enables the holder element (2; 16) to pivot with respect to the reveal wall, characterised in that the adjustment means (20-22; 40-43) are located on at least three spaced apart locations at the periphery of the holder element (2; 16) and that the fixing element is located substantially in the centre of the holder element (2; 16).
A refrigerator, comprising a storage compartment and a drawer in the storage compartment, the drawer comprising a front wall and a decorative strip connected to the front wall, and the decorative strip comprising a decorative portion provided on a front side of the front wall, wherein the decorative strip further comprises a grip portion extending into the drawer and provided on a back side of the front wall, and the thickness of at least a part of the grip portion is greater than the thickness of the decorative portion, characterized in that the grip portion comprises at least two walls (721, 722), and the at least two walls have a distance there-between in a fore-and-aft direction, a bottom wall connecting lower ends of the at least two walls, and the bottom wall and the at least two walls define a cavity with two open ends, wherein the bottom wall is parallel with a horizontal plane.
A method for producing a catheter with a plurality of axially spaced apart electrodes (101,102) thereon, the method comprising forming the electrodes (101,102) from respective electrically conductive elements, and bonding the electrically conductive elements to the catheter, characterised in that each electrically conductive element is of length sufficient to form the corresponding electrode (101,102) as a band electrode (101,102) extending at least partly around the catheter, and the electrically conductive elements are bonded to the catheter by at least one elongated piece of double-sided adhesive tape with the electrically conductive elements extending transversely relative to the elongated piece of double-sided adhesive tape and at least partly around the catheter.
Method for operating an apparatus for the hot water production, comprising at least the following steps: a) capture of an extraction parameter which permits a conclusions regarding the extracted quantity of hot water; b) comparison of the extraction parameter captured in step a) with a predefined threshold value, and c) reduction in the outlet temperature of the apparatus for the hot water production as a temperature signal (17, 18, 19) to a signal temperature (8, 9, 10) for a signal period of time (12, 14, 16) when the threshold value (11, 13, 15) is reached, on the part of the extraction parameter, characterised in that the steps a), b) and c) are repeated multiple times and with each repetition the temperature signal (17, 18, 19) is intensified, wherein the signal period of time (12, 14, 15) and/or the amount of the reduction in the outlet temperature of the apparatus for the hot water production is increased. a) capture of an extraction parameter which permits a conclusions regarding the extracted quantity of hot water; b) comparison of the extraction parameter captured in step a) with a predefined threshold value, and c) reduction in the outlet temperature of the apparatus for the hot water production as a temperature signal (17, 18, 19) to a signal temperature (8, 9, 10) for a signal period of time (12, 14, 16) when the threshold value (11, 13, 15) is reached, on the part of the extraction parameter,
A fluorophosphate glass comprising: the following cations: P 5+ in an amount of 20 to 45 cationic %; Al 3+ in an amount of 15 to 35 cationic %; and Ba 2+ in an amount of 20 to 50 cationic %; and the following anions: F - in an amount of 20 to 50 anionic %; and O 2- in an amount of 50 to 80 anionic %; wherein: a molar ratio of O 2- /P 5+ is larger than or equal to 3.5; Abbe number (vd) of the glass is larger than or equal to 66; and a refractive index (nd) of the glass satisfies an expression: nd ≧ 2.0614 - 0.0070 × νd characterized in that said fluorophosphate glass satisfies one of the following conditions,: a molar ratio of Al 3+ /P 5+ is larger than or equal to 0.47; or a molar ratio of Al 3+ /P 5+ is larger than or equal to 0.45 and said fluorophosphate glass comprises Gd 3+ in an amount of 0 to 1 cationic %. the following cations: P 5+ in an amount of 20 to 45 cationic %; Al 3+ in an amount of 15 to 35 cationic %; and Ba 2+ in an amount of 20 to 50 cationic %; and P 5+ in an amount of 20 to 45 cationic %; Al 3+ in an amount of 15 to 35 cationic %; and Ba 2+ in an amount of 20 to 50 cationic %; and the following anions: F - in an amount of 20 to 50 anionic %; and O 2- in an amount of 50 to 80 anionic %; F - in an amount of 20 to 50 anionic %; and O 2- in an amount of 50 to 80 anionic %; wherein: a molar ratio of O 2- /P 5+ is larger than or equal to 3.5; Abbe number (vd) of the glass is larger than or equal to 66; and a refractive index (nd) of the glass satisfies an expression: nd ≧ 2.0614 - 0.0070 × νd a molar ratio of O 2- /P 5+ is larger than or equal to 3.5; Abbe number (vd) of the glass is larger than or equal to 66; and a refractive index (nd) of the glass satisfies an expression: nd ≧ 2.0614 - 0.0070 × νd a molar ratio of Al 3+ /P 5+ is larger than or equal to 0.47; or a molar ratio of Al 3+ /P 5+ is larger than or equal to 0.45 and said fluorophosphate glass comprises Gd 3+ in an amount of 0 to 1 cationic %.
A peptide of or below: a peptide of less than 15 amino acids comprising the amino acid sequence of SEQ ID NO: 2; or a peptide of less than 15 amino acids which comprises the amino acid sequence of SEQ ID NO: 2, in which one, or two amino acid(s) are substituted, deleted, inserted, and/or added, and wherein the peptide shows cytotoxic (killer) T cell-inducing activity. a peptide of less than 15 amino acids comprising the amino acid sequence of SEQ ID NO: 2; or a peptide of less than 15 amino acids which comprises the amino acid sequence of SEQ ID NO: 2, in which one, or two amino acid(s) are substituted, deleted, inserted, and/or added, and wherein the peptide shows cytotoxic (killer) T cell-inducing activity.
A vaccine comprising a multitype human papilloma virus L2 fusion protein comprising either: L2 residues 11-200 from HPV6, HPV16 and HPV18; or L2 residues 11-88 from HPV1, HPV5, HPV6, HPV16 and HPV18; or L2 residues 17-36 from HPV1, HPV2, HPV5, HPV6, HPV8, HPV11, HPV16, HPV18, HPV31, HPV33, HPV35, HPV39, HPV45, HPV51, HPV52, HPV56, HPV58, HPV59, HPV63, HPV68, HPV73 and HPV82. L2 residues 11-200 from HPV6, HPV16 and HPV18; or L2 residues 11-88 from HPV1, HPV5, HPV6, HPV16 and HPV18; or L2 residues 17-36 from HPV1, HPV2, HPV5, HPV6, HPV8, HPV11, HPV16, HPV18, HPV31, HPV33, HPV35, HPV39, HPV45, HPV51, HPV52, HPV56, HPV58, HPV59, HPV63, HPV68, HPV73 and HPV82.
Dock leveller for docking a deck to a bed of a vehicle, wherein the dock leveller has a deck pivotally connected to a ramp, an actuation arrangement for moving the deck and a safety device, wherein the safety device has at least one electronically controlled valve for stopping a movement of the deck in response to a control signal, wherein the actuation arrangement for moving the deck comprises a fluid system and/or hydraulic system and at least one fluid driven and/or hydraulically driven cylinder for the movement and/or rotation of the deck, wherein the electronically controlled valve is coupled to the actuation arrangement for moving the deck over a preset range and/or to the cylinder for moving the deck, whereby the movement of the cylinder is stoppable by the electronically controlled valve in a closed state, characterized in that said safety device further comprises at least one electronic sensor, wherein an arrangement of the electronic sensor is provided for detecting a fall-movement of the deck, wherein the electronic sensor is arranged for detecting a fall-movement of the deck when a velocity of the deck exceeds a preset threshold for a preset period of time and provide a control signal for stopping the movement of the deck.
An information processing device, comprising: an indication target detection unit that detects an indication target that is a target pointed by an indicating object in a three-dimensional space; an information generation unit that generates explanatory information that includes content information indicating visually recognizable content of the indication target, and additive information indicating visually recognizable characteristics associated with the indication target; and an output control unit that controls output of a voice of the explanatory information; wherein the information generation unit compares the visually recognizable characteristics of the individual indication target, and visually recognizable characteristics at a periphery of the indication target to control an information amount of the additive information. an indication target detection unit that detects an indication target that is a target pointed by an indicating object in a three-dimensional space; an information generation unit that generates explanatory information that includes content information indicating visually recognizable content of the indication target, and additive information indicating visually recognizable characteristics associated with the indication target; and an output control unit that controls output of a voice of the explanatory information; wherein the information generation unit compares the visually recognizable characteristics of the individual indication target, and visually recognizable characteristics at a periphery of the indication target to control an information amount of the additive information.
A signal processing method in a mobile communication system comprising a radio network controller, RNC, and a base station A and a base station B, comprising: receiving, by the RNC, from the base station A, a piece of soft information corresponding to an encoded signal and a cyclic redundancy check, CRC, result of a decoding result of a first subflow in the encoded signal, wherein the piece of soft information of the base station A comprises first soft information of the base station A corresponding to the first subflow; and receiving, by the RNC, from the base station B, a piece of soft information corresponding to the encoded signal and a CRC check result of a decoding result of the first subflow in the encoded signal, wherein the piece of soft information of the base station B comprises first soft information of the base station B corresponding to the first subflow; obtaining, by the RNC, a selective combining result of the first subflow by performing selective combining according to the CRC check result of the base station A and the CRC check result of the base station B; and if the selective combining result of the first subflow is that CRC check is incorrect, determining, by the RNC, a soft combining result of the first subflow according to the first soft information of the base station A and the first soft information of the base station B. receiving, by the RNC, from the base station A, a piece of soft information corresponding to an encoded signal and a cyclic redundancy check, CRC, result of a decoding result of a first subflow in the encoded signal, wherein the piece of soft information of the base station A comprises first soft information of the base station A corresponding to the first subflow; and receiving, by the RNC, from the base station B, a piece of soft information corresponding to the encoded signal and a CRC check result of a decoding result of the first subflow in the encoded signal, wherein the piece of soft information of the base station B comprises first soft information of the base station B corresponding to the first subflow; obtaining, by the RNC, a selective combining result of the first subflow by performing selective combining according to the CRC check result of the base station A and the CRC check result of the base station B; and if the selective combining result of the first subflow is that CRC check is incorrect, determining, by the RNC, a soft combining result of the first subflow according to the first soft information of the base station A and the first soft information of the base station B.
A method for carrying a wing panel of an aircraft, the method comprising: - aligning a strongback over a wing panel; - forming a vacuum attachment between an upper surface of the wing panel and adjustable-length carriers extending beneath the strongback; and - adjusting the length of at least one of the carriers to impart forces onto the wing panel and enforce a predetermined contour onto the wing panel; and - further comprising advancing the wing panel in a process direction while the contour is enforced. - aligning a strongback over a wing panel; - forming a vacuum attachment between an upper surface of the wing panel and adjustable-length carriers extending beneath the strongback; and - adjusting the length of at least one of the carriers to impart forces onto the wing panel and enforce a predetermined contour onto the wing panel; and - further comprising advancing the wing panel in a process direction while the contour is enforced.
A hot-body lifter, comprising a suction lifter with a deformable heat-resistant sealing body, wherein the sealing body comprises a deformable volume element, characterised in that the volume element is fluidic.
Pneumatic vehicle tyre for commercial vehicles with a tread rubber comprising a number of circumferential channels (4, 5), which run around in the circumferential direction and divide the tread rubber into at least two central profile ribs and two shoulder-side profile ribs, a number of sipes being arranged in each of the central profile ribs, the sipes running parallel and extending substantially in the axial direction in each profile rib and entering into the circumferential channels (4, 5), characterized in that the sipes in the central profile ribs are respectively offset in the circumferential direction with respect to one another from profile rib to profile rib by a distance (v) of 5 mm to 7 mm, and in that the circumferential channel(s) that separate the central profile ribs from one another runs or run substantially in a straight line and has or have a width of between 3 mm and 4 mm at the periphery of the tread rubber when the tyre is new.
Rotary drive device comprising: - a housing element; - a drive shaft which is rotatably mounted in the housing element; - a driven shaft which is rotatably mounted in the housing element; and - a transmission device for transmitting a torque from the drive shaft to the driven shaft; characterised in that the transmission device comprises a braking apparatus which is configured to use a braking force to counteract a rotation of the drive shaft, wherein the braking apparatus comprises: - an input element which is associated with the drive shaft and is rotatably drivable thereby; - a brake element which is connected to the housing element for conjoint rotation therewith; and - a coupling element which is adjustable in relation to the input element between a first position and a second position, wherein the braking force exerted by the braking apparatus is greater when the coupling element is in the first position than when it is in the second position; wherein furthermore the coupling element is associated with the driven shaft such that the displacement of said coupling element from the first position to the second position is initiated by an exceeding of a first threshold value of the torque difference between the drive shaft and the driven shaft. - a housing element; - a drive shaft which is rotatably mounted in the housing element; - a driven shaft which is rotatably mounted in the housing element; and - a transmission device for transmitting a torque from the drive shaft to the driven shaft; - an input element which is associated with the drive shaft and is rotatably drivable thereby; - a brake element which is connected to the housing element for conjoint rotation therewith; and - a coupling element which is adjustable in relation to the input element between a first position and a second position, wherein the braking force exerted by the braking apparatus is greater when the coupling element is in the first position than when it is in the second position;