mhurhangee/ep-ind-claims huggingface dataset:
A nuclear reactor head comprising a vessel top head, a penetration extending through the vessel top head along a penetration axis for allowing passage of a control shaft of a control rod drive mechanism through the vessel top head and to a corresponding control guide tube of the nuclear reactor, the penetration comprising a penetration tube extending through the vessel top head and a thermal sleeve extending inside the penetration tube and coaxially with the penetration tube with an axial play between the thermal sleeve and the penetration tube, wherein the nuclear reactor head further comprises a spacer attached to a lower end of the thermal sleeve for maintaining minimal spacing with the upper end of the corresponding control rod guide tube, wherein the thermal sleeve comprises a lower end portion diverging downwardly and the spacer is attached to a lower edge of the lower end portion, characterized in that the spacer has an openwork structure.
A service discovery method, wherein the method comprises: receiving, by a registration center, a service discovery request sent by a first device, wherein the service discovery request carries target parameter information of a service needed by the first device, the target parameter information comprises information about an invocation mode the invocation mode is one-request-one-response or one-request-multiple-response; determining, by the registration center based on a service parameter database, a target service corresponding to the target parameter information, wherein the service parameter database is used to store parameter information of different services of a second device; and sending, by the registration center, a service response message to the first device, wherein the service response message comprises description information of the target service, so that the first device is configured to send invocation information based on the description information of the target service to the second device to invoke the target service of the second device, wherein the one-request-one-response is a service that, after the first device sends invocation information to the second device once, the second device responds to an invocation information request once, and the one-request-multiple-response is a service that, after the first device sends invocation information to the second device once, the second device responds to an invocation information request a plurality of times. receiving, by a registration center, a service discovery request sent by a first device, wherein the service discovery request carries target parameter information of a service needed by the first device, the target parameter information comprises information about an invocation mode the invocation mode is one-request-one-response or one-request-multiple-response; determining, by the registration center based on a service parameter database, a target service corresponding to the target parameter information, wherein the service parameter database is used to store parameter information of different services of a second device; and sending, by the registration center, a service response message to the first device, wherein the service response message comprises description information of the target service, so that the first device is configured to send invocation information based on the description information of the target service to the second device to invoke the target service of the second device, wherein the one-request-one-response is a service that, after the first device sends invocation information to the second device once, the second device responds to an invocation information request once, and the one-request-multiple-response is a service that, after the first device sends invocation information to the second device once, the second device responds to an invocation information request a plurality of times.
An upper-torso garment (10, 1310) having two breast-covering portions (30, 32), the upper-torso garment (10, 1310) comprising: a tubular-jacquard knit region positioned in the breast-covering portions (30, 32), the tubular-jacquard knit region comprising a plurality of front-stitch courses (112, 1414) consecutively interlooped with one another and a plurality of back-stitch courses (114, 1416) consecutively interlooped with one another; the plurality of front-stitch courses (112, 1414) and the plurality of back-stitch courses (114, 1416) being constructed of a first yarn strand (116, 1418) and a second yarn strand (118, 1420), wherein each front-stitch course of the plurality of front-stitch courses (112, 1414) intermittently interlocks with a back-stitch course of the plurality of back-stitch courses (114, 1416) to form a plurality of interlocked courses (720A-C); each interlocked course of the plurality of interlocked courses (720A-C) comprising a plurality of interlocking cross overs (1424, 1426, 1428, 1430), each of which comprises the first yarn strand (116, 1418) and the second yarn strand (118, 1420) crossing over one another to change positions between a respective front-stitch course and a respective back-stitch course; in each interlocked course, the plurality of interlocking cross overs (1424, 1426, 1428, 1430) dividing the respective front-stitch course and the respective back-stitch course into a plurality of front-stitch subsets and a plurality of back-stitch subsets, wherein each interlocked course includes a plurality of knit tubular structures, each of which is comprised of a pair of adjacent interlocking cross overs (1424, 1426), a front-stitch subset, and a back-stitch subset, wherein the plurality of knit tubular structures are arranged side by side across the tubular-jacquard knit region; the tubular-jacquard knit region being divided into a first knit zone that constructs at least part of a breast-covering portion, a second knit zone that constructs at least part of the other breast-covering portion, and a middle knit zone positioned between the first and second knit zones (1524, 1528), wherein each interlocked course includes a first subset of knit tubular structures corresponding with the first knit zone, a second subset of knit tubular structures corresponding with the second knit zone, and a third subset of knit tubular structures corresponding with the middle knit zone; the first subset of knit tubular structures and the second subset of knit tubular structures including two or more knit tubular structures each having at least two and fewer than seven front stitches and at least two and fewer than seven back stitches; and the third subset of knit tubular structures consists of only one knit tubular structure that comprises at least seven front stitches and at least seven back stitches and that separates the first subset of knit tubular structures from the second subset of knit tubular structures.
A sheet-fed printing machine, wherein the sheet-fed printing machine has at least two sheet-fed printing units (03; 200; 500; 600; 700), wherein a first sheet-fed printing unit is formed as a simultaneous sheet printing unit and has a first cylinder of the first type formed as a collecting cylinder and a second cylinder of the first type formed as a collecting cylinder, which have direct contact with one another and/or are arranged to interact directly with one another and each of which have an axis of rotation (216; 217), and wherein an axial plane is a plane containing both the axis of rotation of the first cylinder of the first type as well as the axis of rotation of the second cylinder of the first type, and wherein a reference plane is a plane containing at least one axis of rotation (216; 217) of such a cylinder (201; 202) of the first type and having a horizontal surface normal, and wherein these two cylinders (201; 202) of the first type are arranged, at least during a processing operation, such that the intersection angle between the axial plane, on the one hand, and the reference plane, on the other hand, is no more than 45°, and wherein a second sheet-fed printing unit (03; 500; 600; 700) has at least one cylinder (501; 502; 601; 602; 701; 702) of the first type formed as an impression cylinder (501; 502; 601; 602; 701; 702), and wherein the two collecting cylinders (201; 202) of the first printing unit and the at least one impression cylinder (501; 502; 601; 602; 701; 702) of the second printing unit (03; 500; 600; 700) have a same outer circumference, characterized in that the simultaneous sheet printing unit has precisely four form cylinders (203; 204; 206; 207), of which precisely two cylinders have direct contact with and/or are arranged to interact directly with the first collecting cylinder and of which the two other cylinders have direct contact with and/or are arranged to interact directly with the second collecting cylinder, and in that the second sheet-fed printing unit (03; 500; 600; 700) has at least one form cylinder (503; 504; 506; 507; 603; 604; 606; 607; 703; 704; 706; 707), which has direct contact with and/or is arranged to interact directly with the impression cylinder (501; 502; 601; 602; 701; 702) of the second sheet-fed printing unit (03; 500; 600; 700) and which is formed as a screen printing form cylinder (703; 704; 706; 707) or as a flexo form cylinder (603; 604; 606; 607) or as a numbering form cylinder (503; 504; 506; 507).
A safe stereo camera which has at least a first image sensor for recording a first raw image and a second image sensor for recording a second raw image of a monitoring region from a perspective offset relative to one another, a stereoscopy unit for generating a depth map from the two raw images (36a-b) and a test unit for checking the operability of the image sensors (16a-b), characterized in that the test unit is adapted to compare first image information from a first image window of the first raw image with second image information from a second image window of the second raw image for detecting errors of the image sensors (16a-b), and to select the image windows (40a-b) on the basis of information from the stereoscopy unit when generating the depth map.
A method of determining the tip angle of a blade (24a, 24b, 24c) of a wind turbine rotor during rotation of the rotor, the method comprising: (a) transmitting a light signal (34a, 34b) from a first blade of the wind turbine rotor towards a second blade of the rotor; (b) receiving the light signal at the second blade of the rotor; and (c) calculating the tip angle of the first or second blade based upon characteristics of the received light signal. (a) transmitting a light signal (34a, 34b) from a first blade of the wind turbine rotor towards a second blade of the rotor; (b) receiving the light signal at the second blade of the rotor; and (c) calculating the tip angle of the first or second blade based upon characteristics of the received light signal.
An ALVAC vector comprising a polynucleotide encoding: (a) two Rabies G polypeptides each having at least 90% identity to the sequence set forth in SEQ ID NO:1, wherein each Rabies G polypeptide is encoded by a portion of the polynucleotide inserted into a C5 locus of the vector; and (b) an OX40L polypeptide having at least 90% identity to the sequence set forth in SEQ ID NO:12, 63, 64, 65, 66, 67, 70 or 71, wherein the OX40L polypeptide is encoded by a portion of the polynucleotide inserted into a C6 locus of the vector. (a) two Rabies G polypeptides each having at least 90% identity to the sequence set forth in SEQ ID NO:1, wherein each Rabies G polypeptide is encoded by a portion of the polynucleotide inserted into a C5 locus of the vector; and (b) an OX40L polypeptide having at least 90% identity to the sequence set forth in SEQ ID NO:12, 63, 64, 65, 66, 67, 70 or 71, wherein the OX40L polypeptide is encoded by a portion of the polynucleotide inserted into a C6 locus of the vector.
A lifting arrangement, realized to facilitate alignment of a load with a wind turbine assembly, comprising: - a crane arrangement for hoisting the load to the wind turbine assembly; - a tagline arrangement (12, 13, 17) for stabilizing the load during a lifting manoeuvre; - a sensor arrangement (21, 22, 23) realized to detect a motion of the wind turbine assembly relative to the load during the lifting manoeuvre; - an actuator arrangement (12W, 13W, 18W) for adjusting the position of the load relative to the wind turbine assembly; and - a control arrangement for controlling actuators of the actuator arrangement (12W, 13W, 18W) to reduce the detected relative motion; wherein the sensor arrangement comprises a sensor realized to be arranged at an upper level of the wind turbine, which sensor is realized to detect an oscillation of the wind turbine assembly, and the actuator arrangement comprises an actuator realized to adjust the orientation of the suspended load, and wherein the control arrangement is realized to generate a control signal for the load orientation actuator. - a crane arrangement for hoisting the load to the wind turbine assembly; - a tagline arrangement (12, 13, 17) for stabilizing the load during a lifting manoeuvre; - a sensor arrangement (21, 22, 23) realized to detect a motion of the wind turbine assembly relative to the load during the lifting manoeuvre; - an actuator arrangement (12W, 13W, 18W) for adjusting the position of the load relative to the wind turbine assembly; and - a control arrangement for controlling actuators of the actuator arrangement (12W, 13W, 18W) to reduce the detected relative motion;
A host device which is adapted to execute an authentication process with a memory device which has a first area where read is restricted, and a readable second area and a readable third area, wherein a) the host device has first key data (IDKey) and second key data (HKeyU) set (Hkey), and b) the host device being adapted b1) to read family key block data (FKBv) from the third area, and to process the family key block data (FKBv) using the first key data (IDKey) to obtain decodable data; b2) to read key index data (index of NKey) from the second area to select, from the second key data set (Hkey), the second key data (HKey ij) corresponding to the key index data (index of NKey); b3) to generate number data (RN h), and to generate session key data (SKey ij) using the number data (RN h) and the second key data (HKey ij) corresponding to the key index data (index of NKey); and b4) to decode encrypted secret data (SecretID), read from the second area, by family key data (FKey) generated using the decodable data, to obtain secret data (SecretID). a) the host device has first key data (IDKey) and second key data (HKeyU) set (Hkey), and b) the host device being adapted b1) to read family key block data (FKBv) from the third area, and to process the family key block data (FKBv) using the first key data (IDKey) to obtain decodable data; b2) to read key index data (index of NKey) from the second area to select, from the second key data set (Hkey), the second key data (HKey ij) corresponding to the key index data (index of NKey); b3) to generate number data (RN h), and to generate session key data (SKey ij) using the number data (RN h) and the second key data (HKey ij) corresponding to the key index data (index of NKey); and b4) to decode encrypted secret data (SecretID), read from the second area, by family key data (FKey) generated using the decodable data, to obtain secret data (SecretID). b1) to read family key block data (FKBv) from the third area, and to process the family key block data (FKBv) using the first key data (IDKey) to obtain decodable data; b2) to read key index data (index of NKey) from the second area to select, from the second key data set (Hkey), the second key data (HKey ij) corresponding to the key index data (index of NKey); b3) to generate number data (RN h), and to generate session key data (SKey ij) using the number data (RN h) and the second key data (HKey ij) corresponding to the key index data (index of NKey); and b4) to decode encrypted secret data (SecretID), read from the second area, by family key data (FKey) generated using the decodable data, to obtain secret data (SecretID).
A method for preserving the antigenicity of cells in saliva, the method comprising contacting the saliva with a solution comprising paraformaldehyde, at least one serum protein from human and/or other animal species, and sodium azide, wherein the solution is buffered at a pH from 6.4 to 8.4.
Seismic source array, comprising a housing and a plurality of seismic sources (10, 11, 12) suspending from the housing, each source being configured for generating a seismic signal, wherein the array further comprises a protective structure attached to the housing and defining a protective space near the housing, wherein the seismic sources in a first position relative to the housing suspend from the housing such as to be arranged within the protective space defined by the protective structure, and wherein at least one of the seismic sources suspends from the housing by means of a suspension structure configured for moving the at least one seismic source to a second position relative to the housing, the second position being located outside the protective space, wherein the protective structure comprises a frame defining the protective space on at least two sides thereof, characterized in that the suspension structure of the at least one seismic source comprises a pivotable arm structure arranged for pivoting relative to the frame for bringing the at least one seismic source to the second position.
A computer-implemented key management method comprising: creating a cryptographic key at a key source; generating a genesis block for a key block-chain ledger corresponding to the cryptographic key; securely modifying the genesis block to include metadata identifying the key source; performing a first key transaction with the cryptographic key; generating a first transaction block corresponding to the first key transaction with the cryptographic key and adding the first transaction block to the key block-chain ledger; and securely modifying the first transaction block to include metadata describing the first key transaction with the cryptographic key, the metadata including traceability information for the cryptographic key. creating a cryptographic key at a key source; generating a genesis block for a key block-chain ledger corresponding to the cryptographic key; securely modifying the genesis block to include metadata identifying the key source; performing a first key transaction with the cryptographic key; generating a first transaction block corresponding to the first key transaction with the cryptographic key and adding the first transaction block to the key block-chain ledger; and securely modifying the first transaction block to include metadata describing the first key transaction with the cryptographic key, the metadata including traceability information for the cryptographic key.
A method for investigating one or a plurality of phase objects (4; 33; 233), wherein a grid made up of elements (10; 10'; 10a-d) is used, which is illuminated with light (20; 20a-d) of a light source, the coherence length of which is larger than the average spacing of adjacent elements (10; 10'; 10a-d) of the grid, wherein a diffraction image of the illuminating light scattered on the grid is generated, wherein the one or the plurality of phase objects (4; 33; 233) are placed in the light path between the light source and the grid and/or in the light path of the illuminating light scattered on the grid, wherein at least a part of the diffraction image is detected by an optical sensor directly or after interaction with further optical components, wherein the optical detector converts the detected diffraction image or the detected part of the diffraction image into a signal, wherein the signal is analysed further in order to ascertain information relating to the one or plurality of phase objects (4; 33; 233) therefrom.
An LNG storage tank comprising: a lower insulation board for insulating LNG from the outside; a heating member placed on the lower insulation board; a main secondary barrier attached on the heating member; an upper insulation board attached on a part of the main secondary barrier; an auxiliary secondary barrier attached on the other part of the main secondary barrier; and an adhesive layer interposed between the main secondary barrier and the auxiliary secondary barrier, characterized in that the LNG storage tank further comprises a connecting board located on the auxiliary secondary barrier and disposed between neighboring two upper insulation boards, and in that the lower insulation board has a heating member groove into which the heating member is inserted, the heating member groove being formed in the surface of the lower insulation board facing the main secondary barrier. a lower insulation board for insulating LNG from the outside; a heating member placed on the lower insulation board; a main secondary barrier attached on the heating member; an upper insulation board attached on a part of the main secondary barrier; an auxiliary secondary barrier attached on the other part of the main secondary barrier; and an adhesive layer interposed between the main secondary barrier and the auxiliary secondary barrier, characterized in that the LNG storage tank further comprises a connecting board located on the auxiliary secondary barrier and disposed between neighboring two upper insulation boards, and in that the lower insulation board has a heating member groove into which the heating member is inserted, the heating member groove being formed in the surface of the lower insulation board facing the main secondary barrier.
A multi-layer colored web material exhibiting viewing-angle dependent color and comprising a first web material and a second web material, wherein said first web material comprises a first polymer having first refractive properties and said second web material comprises a second polymer having second refractive properties, wherein said first refractive properties of said first polymer are different than said second refractive properties of said second polymer, wherein said multi-layer colored web material comprises a plurality of discrete extended elements comprising open proximal ends, open or closed distal ends, and sidewalls, and wherein (a) said discrete extended elements have a diameter of less than about 500 microns; (b) said discrete extended elements have an aspect ratio of at least about 0.2; and/or (c) said multi-layer colored web material comprises at least about 95 discrete extended elements per square centimeter. (a) said discrete extended elements have a diameter of less than about 500 microns; (b) said discrete extended elements have an aspect ratio of at least about 0.2; and/or (c) said multi-layer colored web material comprises at least about 95 discrete extended elements per square centimeter.