mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a synthetic quartz glass substrate, comprising the steps of: (a) hot shaping a synthetic quartz glass ingot to form a synthetic quartz glass block, (b) slicing the synthetic quartz glass block to form a synthetic quartz glass plate, (c) subjecting the glass plate to annealing treatment at temperature from 500 to 1,250°C for 15 to 60 hours, (d) subjecting the annealed glass plate to hydrogen doping treatment in a hydrogen gas atmosphere at 300 to 450°C for 20 to 40 hours, and (e) subjecting the doped glass plate to dehydrogenation treatment at from 200 to 400°C for 5 to 10 hours. (a) hot shaping a synthetic quartz glass ingot to form a synthetic quartz glass block, (b) slicing the synthetic quartz glass block to form a synthetic quartz glass plate, (c) subjecting the glass plate to annealing treatment at temperature from 500 to 1,250°C for 15 to 60 hours, (d) subjecting the annealed glass plate to hydrogen doping treatment in a hydrogen gas atmosphere at 300 to 450°C for 20 to 40 hours, and (e) subjecting the doped glass plate to dehydrogenation treatment at from 200 to 400°C for 5 to 10 hours.
A flexible bag which is collapsed when empty, wherein at least one fastening means (41a, 41b, 42a, 42b; 43) is provided on a surface of the flexible bag such that at least two upper parts (53a, 53b) of the flexible bag can be held together by said at least one fastening means (41a, 41b, 42a, 42b; 43) during a first part of filling of the flexible bag, whereby the fastening means is designed to release when the bag is being further filled the bag being characterised in that said fastening means will so release such that the two upper parts (53a, 53b) previously held together by the fastening means will lose contact and in that bag is a cuboid, being composed of four sheets (11, 13, 27, 29) sealed together on two opposite sides of the cuboid, and in that, in the empty stage the flexible bag is folded together showing the two upper parts (53a, 53b) in the form of two top wings, and showing two bottom wings (51a, 51b), whereby the two top wings (53a, 53b) are fastened to each other with the fastening means (41a, 41b, 42a, 42b; 43) before filling of the flexible bag.
A modular wind turbine rotor blade comprising: at least a first rotor blade module comprising a first fiber composite body defining a hollow blade profile extending along a longitudinal blade axis and comprising a first edge and at least a first inlay extending to or near to the first edge, the first inlay comprising a first receptacle and a first anchoring portion anchored to the first fiber composite body on an inner surface thereof, said first receptacle being adapted to receive a threaded fastener; at least a second rotor blade module comprising a second fiber composite body defining a hollow blade profile extending along the longitudinal blade axis and comprising a second edge and at least a second inlay extending to or near to the second edge, the second inlay comprising a second receptacle and a second anchoring portion anchored to the second fiber composite body, the second receptacle being co-axially orientated to the first receptacle; a detachable butt joint between the first rotor blade module and the second rotor blade module; and a screw joint between the first inlay and the second inlay comprising the threaded fastener fastened to the first receptacle and the second receptacle. at least a first rotor blade module comprising a first fiber composite body defining a hollow blade profile extending along a longitudinal blade axis and comprising a first edge and at least a first inlay extending to or near to the first edge, the first inlay comprising a first receptacle and a first anchoring portion anchored to the first fiber composite body on an inner surface thereof, said first receptacle being adapted to receive a threaded fastener; at least a second rotor blade module comprising a second fiber composite body defining a hollow blade profile extending along the longitudinal blade axis and comprising a second edge and at least a second inlay extending to or near to the second edge, the second inlay comprising a second receptacle and a second anchoring portion anchored to the second fiber composite body, the second receptacle being co-axially orientated to the first receptacle; a detachable butt joint between the first rotor blade module and the second rotor blade module; and a screw joint between the first inlay and the second inlay comprising the threaded fastener fastened to the first receptacle and the second receptacle.
An HLA-A24-restricted, MAGE-A4 143-151 -specific T cell receptor constituted of: an α-chain polypeptide comprising an α-chain variable region polypeptide of an amino acid sequence shown in SEQ ID NO: 5 of the Sequence Listing; and a β-chain polypeptide comprising a β-chain variable region polypeptide of an amino acid sequence shown in SEQ ID NO:7 of the Sequence Listing. an α-chain polypeptide comprising an α-chain variable region polypeptide of an amino acid sequence shown in SEQ ID NO: 5 of the Sequence Listing; and a β-chain polypeptide comprising a β-chain variable region polypeptide of an amino acid sequence shown in SEQ ID NO:7 of the Sequence Listing.
A membrane, comprising: - a first non- woven layer having first and second surfaces; - a high density polyethylene (HDPE) film layer; - a tie layer between the first non-woven first surface and the HDPE film layer; - a second non-woven layer having first and second surfaces; and - a tie layer between the second non-woven first surface and the HDPE film layer, wherein the tie layers are propylene based elastomer blends with LDPE, and wherein the membrane is formed as a laminate have a structure of ABCBA in which A is the non-woven layer (12a, 12b), B is the tie-layer and C is the HDPE film layer, wherein the tie layers provide adhesion between the first non-woven layer and the HDPE film layer and between the second non-woven layer and the opposing side of HDPE film layer, wherein the membrane is a waterproof membrane, characterized in that the HDPE film layer is formed of two plies of HDPE being mechanically oriented forming an oriented cross laminated film layer, that the non-woven layer is a polypropylene non-woven fabric having a basis weight of 30,5 g/m 2 (0.9 osy), that in the tie layer the propylene based elastomer is present at 25 percent by weight of the blend and wherein the LDPE is present at 75 percent by weight of the blend, and that the HDPE oriented cross laminated film has a thickness of 0,076 mm (3.0 mils). - a first non- woven layer having first and second surfaces; - a high density polyethylene (HDPE) film layer; - a tie layer between the first non-woven first surface and the HDPE film layer; - a second non-woven layer having first and second surfaces; and - a tie layer between the second non-woven first surface and the HDPE film layer, wherein the tie layers are propylene based elastomer blends with LDPE, and wherein the membrane is formed as a laminate have a structure of ABCBA in which A is the non-woven layer (12a, 12b), B is the tie-layer and C is the HDPE film layer, wherein the tie layers provide adhesion between the first non-woven layer and the HDPE film layer and between the second non-woven layer and the opposing side of HDPE film layer, wherein the membrane is a waterproof membrane, characterized in that the HDPE film layer is formed of two plies of HDPE being mechanically oriented forming an oriented cross laminated film layer, that the non-woven layer is a polypropylene non-woven fabric having a basis weight of 30,5 g/m 2 (0.9 osy), that in the tie layer the propylene based elastomer is present at 25 percent by weight of the blend and wherein the LDPE is present at 75 percent by weight of the blend, and that the HDPE oriented cross laminated film has a thickness of 0,076 mm (3.0 mils).
A method comprising: accessing workflow data that represents a workflow comprising an ordered set of documents, wherein the workflow data comprises data indicating (a) a plurality of documents and (b) an ordering for the plurality of documents within the workflow; wherein the ordering for the plurality of documents is based on dependencies between the plurality of documents; based on the workflow data, displaying in a graphical user interface a representation of the workflow; receiving, via the graphical user interface, input selecting a particular position within the workflow; presenting, on the graphical user interface, a menu of actions for a particular document in the plurality of documents, the particular document being associated with the selected particular position within the workflow; receiving, via the graphical user interface, input indicating an action from the menu of actions to perform with respect to the particular document; and in response to the input, causing the action to be performed with respect to the particular document; wherein the method is performed by one or more computing devices. accessing workflow data that represents a workflow comprising an ordered set of documents, wherein the workflow data comprises data indicating (a) a plurality of documents and (b) an ordering for the plurality of documents within the workflow; wherein the ordering for the plurality of documents is based on dependencies between the plurality of documents; based on the workflow data, displaying in a graphical user interface a representation of the workflow; receiving, via the graphical user interface, input selecting a particular position within the workflow; presenting, on the graphical user interface, a menu of actions for a particular document in the plurality of documents, the particular document being associated with the selected particular position within the workflow; receiving, via the graphical user interface, input indicating an action from the menu of actions to perform with respect to the particular document; and in response to the input, causing the action to be performed with respect to the particular document; wherein the method is performed by one or more computing devices.
A network attack defense policy sending method, comprising: receiving, by a defense policy sending apparatus, attack information from a network device in a first network, wherein the attack information comprises a target Internet Protocol, IP, address, and the attack information is used to indicate that a network attack packet whose destination address is the target IP address exists in the first network; determining, by the defense policy sending apparatus, that the network attack packet enters the first network through a first edge network device, wherein the first edge network device is an edge device in the first network; and sending, by the defense policy sending apparatus, a defense policy to the first edge network device, wherein the defense policy is used to instruct the first edge network device to process, according to the defense policy, a packet whose destination address is the target IP address; wherein the attack information further comprises a source IP address of the network attack packet, and the determining that the network attack packet enters the first network through a first edge network device comprises: obtaining, by the defense policy sending apparatus, the source IP address from the attack information; and determining, by the defense policy sending apparatus, the first edge network device based on a correspondence between the source IP address and an identifier of the first edge network device. receiving, by a defense policy sending apparatus, attack information from a network device in a first network, wherein the attack information comprises a target Internet Protocol, IP, address, and the attack information is used to indicate that a network attack packet whose destination address is the target IP address exists in the first network; determining, by the defense policy sending apparatus, that the network attack packet enters the first network through a first edge network device, wherein the first edge network device is an edge device in the first network; and sending, by the defense policy sending apparatus, a defense policy to the first edge network device, wherein the defense policy is used to instruct the first edge network device to process, according to the defense policy, a packet whose destination address is the target IP address; wherein the attack information further comprises a source IP address of the network attack packet, and the determining that the network attack packet enters the first network through a first edge network device comprises: obtaining, by the defense policy sending apparatus, the source IP address from the attack information; and determining, by the defense policy sending apparatus, the first edge network device based on a correspondence between the source IP address and an identifier of the first edge network device.
Writing instrument which is formed as a push-button writing instrument and has a writing instrument housing with a writing tip protruding beyond one end of said housing, which writing tip can be moved by means of a pushing mechanism between a writing position, which protrudes beyond one end of the writing instrument housing, and a standby position which is located in a housing interior of the writing instrument housing, wherein the pushing mechanism can be actuated by means of a push-button which is intended to be a functional element, is provided at the end of the writing instrument housing which is remote from the writing tip and has a first push-button sub-region which is in driving connection with the pushing mechanism and to which a second push-button sub-region can be detachably fastened, characterised in that the writing instrument comprises a machine-readable data memory and that for this purpose the second push-button sub-region which is provided as the detachably fastenable sub-region of the functional element contains the data memory.
An isolated nucleic acid encoding a protein comprising: (i) an antibody region comprising a meditope-binding site formed by a heavy chain variable region, a light chain variable region, a heavy chain constant region and a light chain constant region, wherein said meditope-binding site forms a peptide binding site comprising framework region amino acid residues; and (ii) a transmembrane domain. (i) an antibody region comprising a meditope-binding site formed by a heavy chain variable region, a light chain variable region, a heavy chain constant region and a light chain constant region, wherein said meditope-binding site forms a peptide binding site comprising framework region amino acid residues; and (ii) a transmembrane domain.
A method of operating a terminal device, the method comprising: maintaining one or more indices and a mapping between the one or more indices and respective network identifiers, each network identifier identifying a network and/or a network node, the method being characterized by: in communications between the terminal device and a first network in which a particular network and/or a particular network node is to be identified, using the index associated with the particular network and/or the particular network node to identify the particular network and/or the particular network node, wherein the first network is a network operating according to a mobile telecommunications radio access technology, RAT, and the particular network and/or the particular network node are operating according to a wireless local area network RAT; and for a network identifier that has two or more associated indices, determining an action to take with respect to the particular network or the particular network node identified by the network identifier based on which of the two or more indices associated with the network identifier has been received from the first network.
A method comprising: assigning, at a server, a unique identifier to each of a plurality of devices (10, 11) communicatively coupled to one another and the server via a communications network; converting, at the server, each unique identifier (10, 11) to a device hash key by applying a hash function; splitting, at the server, a range of device hash keys of the plurality of devices (10, 11) into N approximately equal sectors, where N is a prime number and each sector includes 1/N of the device hash keys of the plurality of the devices (10, 11); providing, at the server, K monitoring workers to monitor the plurality of devices (10, 11) in an order based on the respective device hash key, where K is an integer. assigning, at a server, a unique identifier to each of a plurality of devices (10, 11) communicatively coupled to one another and the server via a communications network; converting, at the server, each unique identifier (10, 11) to a device hash key by applying a hash function; splitting, at the server, a range of device hash keys of the plurality of devices (10, 11) into N approximately equal sectors, where N is a prime number and each sector includes 1/N of the device hash keys of the plurality of the devices (10, 11); providing, at the server, K monitoring workers to monitor the plurality of devices (10, 11) in an order based on the respective device hash key, where K is an integer.
A method of determining a corrected weight on a drill bit (weight-on-bit) during drilling of a wellbore, comprising: determining a first weight-on-bit while a fluid flows through the drill and no applied weight-on-bit, using a sensor; determining a second weight-on-bit with the sensor while drilling the wellbore using the drill bit; and determining the corrected weight-on-bit from the determined first weight-on-bit and the second weight-on bit; characterised in that: the sensor is included in a sensor package located in a bit body of the drill bit; and the drill bit has a drill bit body having a fluid passage therethrough, the sensor package being located in the bit body outside of the fluid passage, wherein the sensor package is disposed in a shank of the drill bit, the shank including a bore therethrough defining the passage for drilling fluid. determining a first weight-on-bit while a fluid flows through the drill and no applied weight-on-bit, using a sensor; determining a second weight-on-bit with the sensor while drilling the wellbore using the drill bit; and determining the corrected weight-on-bit from the determined first weight-on-bit and the second weight-on bit; characterised in that: the sensor is included in a sensor package located in a bit body of the drill bit; and the drill bit has a drill bit body having a fluid passage therethrough, the sensor package being located in the bit body outside of the fluid passage, wherein the sensor package is disposed in a shank of the drill bit, the shank including a bore therethrough defining the passage for drilling fluid. the sensor is included in a sensor package located in a bit body of the drill bit; and the drill bit has a drill bit body having a fluid passage therethrough, the sensor package being located in the bit body outside of the fluid passage, wherein the sensor package is disposed in a shank of the drill bit, the shank including a bore therethrough defining the passage for drilling fluid.
A nozzle assembly comprising: a) a nozzle housing comprising a nozzle cap, said nozzle cap having a top surface, and a nozzle base, said nozzle housing enclosing a nozzle cavity; b) an injection stem formed as an integral portion of the nozzle cap and disposed within the nozzle cavity; c) a sample inlet formed in the nozzle cap of the nozzle housing and in fluid communication with the injection stem; d) a straight injection tube having a sample outlet, the injection tube being mounted with the injection stem of the nozzle housing and extending into the nozzle cavity, wherein the injection tube comprises a flow path of less than 50 mm providing fluid communication between the sample inlet of the nozzle housing and the sample outlet of the injection tube, wherein the injection tube is over molded or insert molded with the nozzle cap; e) one or more sheath inlets (24a, 24b) from the top surface of the nozzle cap in fluid communication with the nozzle cavity; and f) a nozzle exit orifice downstream of the sample outlet. a) a nozzle housing comprising a nozzle cap, said nozzle cap having a top surface, and a nozzle base, said nozzle housing enclosing a nozzle cavity; b) an injection stem formed as an integral portion of the nozzle cap and disposed within the nozzle cavity; c) a sample inlet formed in the nozzle cap of the nozzle housing and in fluid communication with the injection stem; d) a straight injection tube having a sample outlet, the injection tube being mounted with the injection stem of the nozzle housing and extending into the nozzle cavity, wherein the injection tube comprises a flow path of less than 50 mm providing fluid communication between the sample inlet of the nozzle housing and the sample outlet of the injection tube, wherein the injection tube is over molded or insert molded with the nozzle cap; e) one or more sheath inlets (24a, 24b) from the top surface of the nozzle cap in fluid communication with the nozzle cavity; and f) a nozzle exit orifice downstream of the sample outlet.
An ion guiding device comprising two or more parallel conjoined ion guides, wherein the two or more parallel conjoined ion guides comprise: a first ion guide comprising a first plurality of electrodes, each electrode being an open ring-electrode, and wherein a first ion guiding path is formed within said first ion guide; and a second ion guide comprising a second plurality of electrodes, wherein a second different ion guiding path is formed within said second ion guide, and wherein the openings in the ring-electrodes of the first ion guide face openings of the second ion guide, wherein the second ion guide is selected from the group consisting of: (i) an ion guide comprising a plurality of open ring-electrodes, wherein the openings in the ring-electrodes of the first ion guide face openings in the electrodes of the second ion guide; (ii) a stacked plate ion guide, wherein the plates are oriented perpendicular to the plane in which the ions travel through the first and second ion guides, in use, and parallel to the direction in which the ions travel through the second ion guide, in use; or (iii) a rod set. a first ion guide comprising a first plurality of electrodes, each electrode being an open ring-electrode, and wherein a first ion guiding path is formed within said first ion guide; and a second ion guide comprising a second plurality of electrodes, wherein a second different ion guiding path is formed within said second ion guide, and wherein the openings in the ring-electrodes of the first ion guide face openings of the second ion guide, wherein the second ion guide is selected from the group consisting of: (i) an ion guide comprising a plurality of open ring-electrodes, wherein the openings in the ring-electrodes of the first ion guide face openings in the electrodes of the second ion guide; (ii) a stacked plate ion guide, wherein the plates are oriented perpendicular to the plane in which the ions travel through the first and second ion guides, in use, and parallel to the direction in which the ions travel through the second ion guide, in use; or (iii) a rod set. (i) an ion guide comprising a plurality of open ring-electrodes, wherein the openings in the ring-electrodes of the first ion guide face openings in the electrodes of the second ion guide; (ii) a stacked plate ion guide, wherein the plates are oriented perpendicular to the plane in which the ions travel through the first and second ion guides, in use, and parallel to the direction in which the ions travel through the second ion guide, in use; or (iii) a rod set.