mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an accumulation conveyor, the accumulation conveyor comprising a plurality of zones (4a, 4b, 6a, 6b, 8a, 8b, 10a, 10b, 12a), which method comprises: receiving, at a controller, data indicating conditions for each zone of the plurality of zones (4a, 4b, 6a, 6b, 8a, 8b, 10a, 10b, 12a); and setting, at the controller, an operating speed for a first zone of the plurality of zones based on a condition of a downstream zone of the plurality of zones, the condition of the downstream zone being a speed of the downstream zone; wherein setting the operating speed for the first zone based on the condition of the downstream zone comprises determining, at the controller, a potential speed of the first zone based on the speed of the downstream zone, characterized in that the method further comprises: if the first zone is not occupied, then a potential speed (V LZ) for the first zone is determined as follows: V LZ = 2 | D LZ | ∗ L LZ + V LZ + 1 2 1 / 2 where V LZ is the potential speed of the first zone, D LZ is the deceleration rate of the first zone. L LZ is the length of the first zone, V LZ+1 is the potential speed of the downstream zone L LZ+1. receiving, at a controller, data indicating conditions for each zone of the plurality of zones (4a, 4b, 6a, 6b, 8a, 8b, 10a, 10b, 12a); and setting, at the controller, an operating speed for a first zone of the plurality of zones based on a condition of a downstream zone of the plurality of zones, the condition of the downstream zone being a speed of the downstream zone; V LZ is the potential speed of the first zone, D LZ is the deceleration rate of the first zone. L LZ is the length of the first zone, V LZ+1 is the potential speed of the downstream zone L LZ+1.
A method for drying a fuel rod accommodated in a fuel rod quiver, wherein at least one accommodating pipe, which is closed in a fluid-tight manner on one side, is provided in an interior of the fuel rod quiver, wherein a fuel rod is inserted through an open end of the accommodating pipe into an accommodating chamber of the accommodating pipe, wherein in a drying step, the accommodating chamber of the accommodating pipe is preferably evacuated using a vacuum device and the fuel rod quiver and/or the interior of the fuel rod quiver is heated using a temperature control medium, and characterised in that the temperature control medium is fed into the interior of the fuel rod quiver, circulating around the accommodating pipe, in a temperature controlling manner and, after circulating around the accommodating pipe, is discharged from the interior of the fuel rod quiver as cooled temperature control medium.
An image processing device comprising: a conveyance path for conveying process media, in particular in a specific conveyance direction; an image processing unit for performing image processing on the process media; an upstream-side cover being arranged at an upstream side of the image processing unit; a downstream-side cover being arranged at a downstream side of the image processing unit; and an upstream-side pivot pin (14; 14a) which is oriented transversely, in particular perpendicular, with respect to the conveyance direction, the upstream-side cover being configured to be opened and closed pivoting about a pivot axis of the upstream-side pivot pin (14; 14a), characterized by a downstream-side pivot pin (15; 15a) which is a pivot pin distinct from the upstream-side pivot pin (14; 14a), and which is oriented transversely, in particular perpendicular, with respect to the conveyance direction, the downstream-side cover being configured to be opened and closed pivoting about a pivot axis of the downstream-side pivot pin (15; 15a), wherein the image processing unit is arranged between the upstream-side pivot pin (14, 14a) and the downstream-side pivot pin (15, 15a). a conveyance path for conveying process media, in particular in a specific conveyance direction; an image processing unit for performing image processing on the process media; an upstream-side cover being arranged at an upstream side of the image processing unit; a downstream-side cover being arranged at a downstream side of the image processing unit; and an upstream-side pivot pin (14; 14a) which is oriented transversely, in particular perpendicular, with respect to the conveyance direction, the upstream-side cover being configured to be opened and closed pivoting about a pivot axis of the upstream-side pivot pin (14; 14a), characterized by a downstream-side pivot pin (15; 15a) which is a pivot pin distinct from the upstream-side pivot pin (14; 14a), and which is oriented transversely, in particular perpendicular, with respect to the conveyance direction, the downstream-side cover being configured to be opened and closed pivoting about a pivot axis of the downstream-side pivot pin (15; 15a), wherein the image processing unit is arranged between the upstream-side pivot pin (14, 14a) and the downstream-side pivot pin (15, 15a).
A cam lock assembly kit, comprising: a first cam with a first through cam hole; a second cam with a second through cam hole, wherein the second through cam hole is of a different shape than the first through cam hole; a bolt with a male thread; a cam lock base comprising an axle to receive mechanical rotation from a first end of the axle and transmit the rotation to a second end of the axle, the second end of the axle comprising a hollow with a female thread to couple with the male thread of the bolt; a first adapter and a second adapter, each of the first adapter and the second adapter comprising a main profile (150A, 150B) dimensioned to clearance fit into the hollow of the cam lock base, and a through adapter hole (152A, 152B) dimensioned to receive the male thread of the bolt to couple with the female thread of the hollow of the axle, and the first adapter comprising a first auxiliary profile dimensioned to clearance fit the first through cam hole of the first cam, and the second adapter comprising a second auxiliary profile dimensioned to clearance fit the second through cam hole of the second cam, wherein, when assembled, the bolt couples either the first cam between the first adapter and the second end of the axle, or the second cam between the second adapter and the second end of the axle. a first cam with a first through cam hole; a second cam with a second through cam hole, wherein the second through cam hole is of a different shape than the first through cam hole; a bolt with a male thread; a cam lock base comprising an axle to receive mechanical rotation from a first end of the axle and transmit the rotation to a second end of the axle, the second end of the axle comprising a hollow with a female thread to couple with the male thread of the bolt; a first adapter and a second adapter, each of the first adapter and the second adapter comprising a main profile (150A, 150B) dimensioned to clearance fit into the hollow of the cam lock base, and a through adapter hole (152A, 152B) dimensioned to receive the male thread of the bolt to couple with the female thread of the hollow of the axle, and the first adapter comprising a first auxiliary profile dimensioned to clearance fit the first through cam hole of the first cam, and the second adapter comprising a second auxiliary profile dimensioned to clearance fit the second through cam hole of the second cam, each of the first adapter and the second adapter comprising a main profile (150A, 150B) dimensioned to clearance fit into the hollow of the cam lock base, and a through adapter hole (152A, 152B) dimensioned to receive the male thread of the bolt to couple with the female thread of the hollow of the axle, and the first adapter comprising a first auxiliary profile dimensioned to clearance fit the first through cam hole of the first cam, and the second adapter comprising a second auxiliary profile dimensioned to clearance fit the second through cam hole of the second cam, wherein, when assembled, the bolt couples either the first cam between the first adapter and the second end of the axle, or the second cam between the second adapter and the second end of the axle.
A method for a joint configuration of nuclear power plant fuel elements/assemblies, comprising steps implemented in fuel elements/assemblies joint configuration conducted between at least one operating unit and at least one new starting unit with the first core: for at least one operating unit, based on an equilibrium cycle or transition cycle reactor core configuration design, adding at least one new fuel element/assembly to the at least one operating unit; after running a fuel cycle, and on the basis of the added new fuel elements/assemblies loaded in step, obtaining more spent fuel elements/assemblies having burned once from the at least one operating unit than that obtained in the reactor core configuration design of the equilibrium cycle or transition cycle, and keeping said spent fuel elements/assemblies in reserve; for at least one new starting unit with the first core, arranging a scheduled number of new fuel elements/assemblies and the spent fuel elements/assemblies in reserve having burned once which are obtained from step in the first reactor cores of at least one new starting unit. for at least one operating unit, based on an equilibrium cycle or transition cycle reactor core configuration design, adding at least one new fuel element/assembly to the at least one operating unit; after running a fuel cycle, and on the basis of the added new fuel elements/assemblies loaded in step, obtaining more spent fuel elements/assemblies having burned once from the at least one operating unit than that obtained in the reactor core configuration design of the equilibrium cycle or transition cycle, and keeping said spent fuel elements/assemblies in reserve; for at least one new starting unit with the first core, arranging a scheduled number of new fuel elements/assemblies and the spent fuel elements/assemblies in reserve having burned once which are obtained from step in the first reactor cores of at least one new starting unit.
A procedure of drying a substrate, comprising: obtaining a lyophilisate retainer (1; 10; 19) for lyophilizing a substrate characterized in that the lyophilisate retainer (1; 10; 19) comprises: a three dimensional scaffold body (11; 110; 119) having pores (112; 1120; 1129), wherein the pores (112; 1120; 1129) of the scaffold body (11; 110; 119) are configured to receive and hold the substrate, and the scaffold body (11; 110; 119) is made of a scaffold material providing heat transfer properties in lyophilisation to enable heat transfer to the substrate held in the pores (112; 1120; 1129) of the scaffold body (11; 110; 119); soaking the scaffold body (11; 110; 119) of the lyophilisate retainer (1; 10; 19) with the substrate; and lyophilizing the substrate inside the pores (112; 1120; 1129) of the scaffold body (11; 110; 119) of the lyophilisate retainer (1; 10; 19). obtaining a lyophilisate retainer (1; 10; 19) for lyophilizing a substrate characterized in that the lyophilisate retainer (1; 10; 19) comprises: a three dimensional scaffold body (11; 110; 119) having pores (112; 1120; 1129), wherein the pores (112; 1120; 1129) of the scaffold body (11; 110; 119) are configured to receive and hold the substrate, and the scaffold body (11; 110; 119) is made of a scaffold material providing heat transfer properties in lyophilisation to enable heat transfer to the substrate held in the pores (112; 1120; 1129) of the scaffold body (11; 110; 119); a three dimensional scaffold body (11; 110; 119) having pores (112; 1120; 1129), wherein the pores (112; 1120; 1129) of the scaffold body (11; 110; 119) are configured to receive and hold the substrate, and the scaffold body (11; 110; 119) is made of a scaffold material providing heat transfer properties in lyophilisation to enable heat transfer to the substrate held in the pores (112; 1120; 1129) of the scaffold body (11; 110; 119); soaking the scaffold body (11; 110; 119) of the lyophilisate retainer (1; 10; 19) with the substrate; and lyophilizing the substrate inside the pores (112; 1120; 1129) of the scaffold body (11; 110; 119) of the lyophilisate retainer (1; 10; 19).
A method for realizing integrity protection, characterized in that the method comprises the following steps: receiving, by a Relay Node, a message carrying integrity protection information from a base station, wherein said integrity protection information is used for indicating a RN Data Radio Bearer for which the integrity protection is needed to be activated; providing, by said RN, integrity protection for data being transmitted according to said integrity protection information, wherein, before receiving by said RN the message carrying the integrity protection information from the base station, the method further comprising: sending to said base station, by a Mobility Management Entity, an initial context setup request message carrying cause information for establishing an E-UTRAN (Evolved Universal Terrestrial Radio Access Network) Radio Access Bearer (E-RAB) or an E-RAB setup request message carrying the cause information for establishing the E-RAB, wherein the cause information for establishing the E-RAB comprises three values: data, S1 Interface Application Protocol (S1-AP) and X2 Interface Application Protocol (X2-AP), or comprises two values: data and signaling. receiving, by a Relay Node, a message carrying integrity protection information from a base station, wherein said integrity protection information is used for indicating a RN Data Radio Bearer for which the integrity protection is needed to be activated; providing, by said RN, integrity protection for data being transmitted according to said integrity protection information, wherein, before receiving by said RN the message carrying the integrity protection information from the base station, the method further comprising: sending to said base station, by a Mobility Management Entity, an initial context setup request message carrying cause information for establishing an E-UTRAN (Evolved Universal Terrestrial Radio Access Network) Radio Access Bearer (E-RAB) or an E-RAB setup request message carrying the cause information for establishing the E-RAB, wherein the cause information for establishing the E-RAB comprises three values: data, S1 Interface Application Protocol (S1-AP) and X2 Interface Application Protocol (X2-AP), or comprises two values: data and signaling. sending to said base station, by a Mobility Management Entity, an initial context setup request message carrying cause information for establishing an E-UTRAN (Evolved Universal Terrestrial Radio Access Network) Radio Access Bearer (E-RAB) or an E-RAB setup request message carrying the cause information for establishing the E-RAB, wherein the cause information for establishing the E-RAB comprises three values: data, S1 Interface Application Protocol (S1-AP) and X2 Interface Application Protocol (X2-AP), or comprises two values: data and signaling.
Process for the continuous treatment of waste, comprising: - a stage of providing an amount of waste of a first type formed by residues resulting from the incineration of waste, in particular formed by clinker resulting from the incineration of non-dangerous waste, - a stage of provision of an amount of waste of a second type different from the first type of waste and essentially comprising a carbon-based material, - a gasification stage during which the amount of waste of the second type is converted in a way producing a combustible synthesis gas, using a gasification reactor of dense fluidized bed type, - a vitrification stage during which the amount of waste of the first type is converted into vitrified product using the heat released by the complete oxidation of the combustible synthesis gas produced in the gasification stage, the process being characterized in that the amount of waste of the second type to be gasified is introduced continuously into the gasification reactor, in that the vitrification stage comprises a stage of running the molten waste of the first type out of a melting furnace, then a stage of cooling the waste of the first type in a cooling tank in a way generating the said vitrified product, the cooling tank being a bath of cold water for carrying out very rapid cooling by an immersion in this bath of cold water and making possible a thermal shock, and in that, subsequent to the stage of cooling the waste of the first type in the cooling tank, the process comprises a stage of separation of the ferrous metals present beforehand in the amount of waste of the first type. - a stage of providing an amount of waste of a first type formed by residues resulting from the incineration of waste, in particular formed by clinker resulting from the incineration of non-dangerous waste, - a stage of provision of an amount of waste of a second type different from the first type of waste and essentially comprising a carbon-based material, - a gasification stage during which the amount of waste of the second type is converted in a way producing a combustible synthesis gas, using a gasification reactor of dense fluidized bed type, - a vitrification stage during which the amount of waste of the first type is converted into vitrified product using the heat released by the complete oxidation of the combustible synthesis gas produced in the gasification stage,
An anchoring device for a fence, wherein the anchoring device comprises at least one fence post and elongated support beams (1, 2, 3) connected to the fence post to support the fence post, wherein the fence post comprises a post portion which, in an installed state of the anchoring device, is provided to extend upright, such that the post portion comprises one or several upright extending outer surfaces which form at least a front part, two side parts and a rear part of the post portion, wherein the post portion comprises a lower section which is provided to extend substantially underground and an upper section which is provided to extend substantially aboveground in an installed state of the anchoring device, whereby the anchoring device comprises a first and a second said support beam (1, 2), wherein these support beams (1, 2) are connected to the post portion at a height of the lower section of the post portion, at a height of a said respective side part of the post portion, in such a way that the first and the second support beam (1, 2) extend opposite each other extending beyond the rear part of the post portion and are provided to extend substantially underground in an installed state of the anchoring device, characterized in that the anchoring device comprises a third said support beam, wherein this third support beam is connected to the post portion at a height of the lower section of the post portion, at a height of the front part or the rear part of the post portion, wherein this third support beam forms an angle with the first and the second support beam (1, 2) and wherein the third support beam is provided to extend substantially underground in installed state of the anchoring device.
An in vitro method of preparing a fetal support tissue powder product, consisting of: a) lyophilizing a frozen fetal support tissue obtained from fetal support tissue to produce lyophilized fetal support tissue; wherein the fetal support tissue is selected from: 1) (i) placental amniotic membrane, or substantially isolated PAM, (ii) umbilical cord amniotic membrane (UCAM) or substantially isolated UCAM, (iii) chorion or substantially isolated chorion, (iv) amnion-chorion or substantially isolated amnion-chorion, (v) umbilical cord or substantially isolated umbilical cord, or (vi) any combinations thereof; and 2) any combination of placenta, or substantially isolated placenta, with tissue selected from (i) placental amniotic membrane, or substantially isolated PAM, (ii) umbilical cord amniotic membrane (UCAM) or substantially isolated UCAM, (iii) chorion or substantially isolated chorion, (iv) amnion-chorion or substantially isolated amnion-chorion, and (v) umbilical cord or substantially isolated umbilical cord; and b) grinding the lyophilized fetal support tissue to generate the fetal support tissue powder product. a) lyophilizing a frozen fetal support tissue obtained from fetal support tissue to produce lyophilized fetal support tissue; wherein the fetal support tissue is selected from: 1) (i) placental amniotic membrane, or substantially isolated PAM, (ii) umbilical cord amniotic membrane (UCAM) or substantially isolated UCAM, (iii) chorion or substantially isolated chorion, (iv) amnion-chorion or substantially isolated amnion-chorion, (v) umbilical cord or substantially isolated umbilical cord, or (vi) any combinations thereof; and 2) any combination of placenta, or substantially isolated placenta, with tissue selected from (i) placental amniotic membrane, or substantially isolated PAM, (ii) umbilical cord amniotic membrane (UCAM) or substantially isolated UCAM, (iii) chorion or substantially isolated chorion, (iv) amnion-chorion or substantially isolated amnion-chorion, and (v) umbilical cord or substantially isolated umbilical cord; and 1) (i) placental amniotic membrane, or substantially isolated PAM, (ii) umbilical cord amniotic membrane (UCAM) or substantially isolated UCAM, (iii) chorion or substantially isolated chorion, (iv) amnion-chorion or substantially isolated amnion-chorion, (v) umbilical cord or substantially isolated umbilical cord, or (vi) any combinations thereof; and 2) any combination of placenta, or substantially isolated placenta, with tissue selected from (i) placental amniotic membrane, or substantially isolated PAM, (ii) umbilical cord amniotic membrane (UCAM) or substantially isolated UCAM, (iii) chorion or substantially isolated chorion, (iv) amnion-chorion or substantially isolated amnion-chorion, and (v) umbilical cord or substantially isolated umbilical cord; and b) grinding the lyophilized fetal support tissue to generate the fetal support tissue powder product.
Element for waste bin device, of the type comprising: - a base body, such as a cover or frame, defining an outer side E and an inner side I, - a locking lug movable between a locking position and a released position of the base body, and - actuating means adapted to move the locking lug between the locking position and the released position, characterized in that the element comprises means of blocking the locking lug in a blocking configuration wherein the blocking means resist movement of the locking lug from its locked position towards or into its released position, and in that the element comprises pushing means forcing the locking lug into the blocking configuration, and under the action of an unblocking force exerted on the pushing means, and enabling the locking lug to be moved into an unblocking configuration in which the blocking means enable a movement of the locking lug from its locking position towards or into its released position, and in that the unblocking force that must be applied in order to move the locking lug into its unblocking configuration and to meet the pushing force of the pushing means is between 500 N (about 50 kg) and 5000 N (about 500 kg), particularly between 800 N and 2500 N, and in particular between 1000 N and 2500 N. - a base body, such as a cover or frame, defining an outer side E and an inner side I, - a locking lug movable between a locking position and a released position of the base body, and - actuating means adapted to move the locking lug between the locking position and the released position,