mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an object oriented memory in solid state devices, comprising: accessing a defined set of data as a single object in an atomic operation manner, wherein the accessing is from a source other than a host; characterised by performing a read-verify operation on the accessed defined set of data; storing, after the accessing of the defined set of data from the source other than the host and performing the read-verify operation, the defined set of data as the single object in a number of solid state memory blocks as formatted by a control component of a solid state device that includes the number of solid state memory blocks; and independently performing the read-verify operation on multiple copies of the defined set of new data before a write operation on each of the copies is performed and subsequently storing copies of the defined set of new data in which the read-verify operation detected fewer than a particular number of errors. accessing a defined set of data as a single object in an atomic operation manner, wherein the accessing is from a source other than a host; performing a read-verify operation on the accessed defined set of data; storing, after the accessing of the defined set of data from the source other than the host and performing the read-verify operation, the defined set of data as the single object in a number of solid state memory blocks as formatted by a control component of a solid state device that includes the number of solid state memory blocks; and independently performing the read-verify operation on multiple copies of the defined set of new data before a write operation on each of the copies is performed and subsequently storing copies of the defined set of new data in which the read-verify operation detected fewer than a particular number of errors.
Espresso and coffee machine with a brewing unit, comprising a brewing chamber, means for generating and delivering hot brewing water under pressure into the brewing chamber, a brewing piston for repeatedly closing and opening the brewing chamber, and for moving the brewing piston in the brewing chamber into a pressing position and/or a brewing position, whereby the brewing unit is designed in such a way that the brewing water is able to be introduced laterally into the brewing unit, characterized in that the brewing water is able to be introduced by means of a brewing water inlet provided on a lower end of the brewing piston.
Method for an enhanced monitoring and/or synchronization between network nodes of a telecommunications network realizing an IP Multimedia Subsystem network and serving a user of the telecommunications network, wherein the telecommunications network comprises a plurality of application server nodes for providing an IMS application server functionality, and at least one control function node for providing an IMS control function functionality, wherein the plurality of application server nodes comprises at least a first application server node and a second application server node, wherein the method comprises the following steps: -- in a first step, the first application server node transmits a monitoring request message to the at least one control function node, the monitoring request message comprising an address information being related to the IMS application server functionality provided by the plurality of application server nodes, -- in a second step, subsequent to the first step, the at least one control function node transmits a monitoring response message to a preferred destination network node of the plurality of application server nodes for providing the IMS application server functionality, the preferred destination network node being determined by the at least one control function node, wherein the preferred destination network node corresponds to either the first application server node or to the second application server node based on whether the first application server node or the second application server node is preferred, by the at least one control function node, among the plurality of application server nodes regarding the IMS application server functionality. -- in a first step, the first application server node transmits a monitoring request message to the at least one control function node, the monitoring request message comprising an address information being related to the IMS application server functionality provided by the plurality of application server nodes, -- in a second step, subsequent to the first step, the at least one control function node transmits a monitoring response message to a preferred destination network node of the plurality of application server nodes for providing the IMS application server functionality, the preferred destination network node being determined by the at least one control function node,
A method for manufacturing artificial stone, comprising: (a) mixing two or more kinds of chips having different grain sizes with a raw material for artificial stone; (b) injecting the raw material mixed with the chips into a mold (13, 23, 33); (c) applying primary vibration to the mold using a vibrator at normal pressure to uniformly disperse the raw material in the mold; (d) evacuating air around the mold to create a vacuum around the mold in order to remove bubbles from the raw material; (e) applying secondary vibration to the mold using a vibrator at normal pressure to mold artificial stone; (f) curing and demolding the molded artificial stone; (g) surface-processing of the artificial stone; and (h) cutting, inspection, and packaging of the artificial stone. (a) mixing two or more kinds of chips having different grain sizes with a raw material for artificial stone; (b) injecting the raw material mixed with the chips into a mold (13, 23, 33); (c) applying primary vibration to the mold using a vibrator at normal pressure to uniformly disperse the raw material in the mold; (d) evacuating air around the mold to create a vacuum around the mold in order to remove bubbles from the raw material; (e) applying secondary vibration to the mold using a vibrator at normal pressure to mold artificial stone; (f) curing and demolding the molded artificial stone; (g) surface-processing of the artificial stone; and (h) cutting, inspection, and packaging of the artificial stone.
A bushing for a wind turbine rotor blade, the bushing comprising - a first bushing end and an opposite second bushing end; and - a bushing bore which extends in a region between the first bushing end and the second bushing end and comprises a bore longitudinal axis; - wherein, along the bore longitudinal axis in the direction of the second bushing end, - the bushing bore comprises a threaded portion, and - the bushing comprises a bushing runout that follows the threaded portion, said bushing runout comprising a widening portion of the bushing bore, in which a diameter of the bushing bore enlarges at least monotonically while an increase in diameter decreases at least monotonically, wherein the diameter in the widening portion is enlarged such, that the bushing runout comprises an arc-shaped course in the widening portion. - a first bushing end and an opposite second bushing end; and - a bushing bore which extends in a region between the first bushing end and the second bushing end and comprises a bore longitudinal axis; - wherein, along the bore longitudinal axis in the direction of the second bushing end, - the bushing bore comprises a threaded portion, and - the bushing comprises a bushing runout that follows the threaded portion, said bushing runout comprising a widening portion of the bushing bore, in which a diameter of the bushing bore enlarges at least monotonically while an increase in diameter decreases at least monotonically, wherein the diameter in the widening portion is enlarged such, that the bushing runout comprises an arc-shaped course in the widening portion. - wherein, along the bore longitudinal axis in the direction of the second bushing end, - the bushing bore comprises a threaded portion, and - the bushing comprises a bushing runout that follows the threaded portion, said bushing runout comprising a widening portion of the bushing bore, in which a diameter of the bushing bore enlarges at least monotonically while an increase in diameter decreases at least monotonically, wherein the diameter in the widening portion is enlarged such, that the bushing runout comprises an arc-shaped course in the widening portion.
Packaging insert for forming a grid web comprising: - carrier blank which is designed to form parallel partitions (4, 4') which are erected with respect to a base surface of the carrier blank by folding and/or hemming, and - at least one insert blank, the insert blank being designed to form walls (7, 7') which are erected with respect to a base surface of the insert blank by folding and/or hemming, the insert blank having openings which are formed and arranged in such a way that, when the walls (7, 7') of the insert blank are erected, the openings of the insert blank form receiving regions for the partition walls (4, 4'), wherein the insert blank, with the walls (7, 7') erected and aligned perpendicularly to the partition walls (4, 4'), can be placed on the partition walls (4, 4') in such a way that the receiving regions surround the partition walls (4, 4') on both sides and the partition walls (4, 4') form slots which receive the walls (7, 7'), wherein the carrier blank having incisions which, in the case of erected partition walls (4, 4'), form slots which extend from a vertex of the partition wall in the direction of the base surface of the carrier blank essentially perpendicularly to the base surface, characterized in that the erected partitions (4, 4') have a substantially triangular cross section, and in that the carrier blank is provided with cutouts which form openings in the partition (4, 4') when the partitions (4, 4') are erected and the insert blank is fitted. - carrier blank which is designed to form parallel partitions (4, 4') which are erected with respect to a base surface of the carrier blank by folding and/or hemming, and - at least one insert blank, the insert blank being designed to form walls (7, 7') which are erected with respect to a base surface of the insert blank by folding and/or hemming, the insert blank having openings which are formed and arranged in such a way that, when the walls (7, 7') of the insert blank are erected, the openings of the insert blank form receiving regions for the partition walls (4, 4'), wherein the insert blank, with the walls (7, 7') erected and aligned perpendicularly to the partition walls (4, 4'), can be placed on the partition walls (4, 4') in such a way that the receiving regions surround the partition walls (4, 4') on both sides and the partition walls (4, 4') form slots which receive the walls (7, 7'),
An electrode arrangement comprising: a transmitting electrode which during a measurement cycle is configured to receive an alternating transmission signal and a plurality of receiving electrodes configured to detect disturbances in an electric field formed by the transmitting electrode, wherein the transmitting electrode and the receiving electrode are arranged in a single layer such that a single transmitting electrode is formed by an electrode structure that substantially surrounds each receiving electrode of said plurality of receiving electrodes, wherein the plurality of receiving electrodes are arranged around a center area, characterized by a plurality of projective capacitive touch sensors (610; 710) arranged in the center area, and a controller connected with feeding lines (440, 520), wherein the controller is configured to operate in first mode or in a second mode, wherein the first mode uses the transmitting electrode and the plurality of receiving electrodes for a touch-less gesture detection and the second mode uses the plurality of projective capacitive touch sensors for a touch based detection mode while said alternating transmission signal is turned off. a transmitting electrode which during a measurement cycle is configured to receive an alternating transmission signal and a plurality of receiving electrodes configured to detect disturbances in an electric field formed by the transmitting electrode, wherein the transmitting electrode and the receiving electrode are arranged in a single layer such that a single transmitting electrode is formed by an electrode structure that substantially surrounds each receiving electrode of said plurality of receiving electrodes, wherein the plurality of receiving electrodes are arranged around a center area, characterized by a plurality of projective capacitive touch sensors (610; 710) arranged in the center area, and a controller connected with feeding lines (440, 520), wherein the controller is configured to operate in first mode or in a second mode, wherein the first mode uses the transmitting electrode and the plurality of receiving electrodes for a touch-less gesture detection and the second mode uses the plurality of projective capacitive touch sensors for a touch based detection mode while said alternating transmission signal is turned off.
A radiant heater with a heating tube element, comprising: - at least one heating tube element with a heating tube that is transparent or semi-transparent for infrared rays; - at least one reflector, wherein the reflector is an infrared reflector adapted to the infrared spectrum of the heating tube element; - a housing for a front side transparent for infrared rays and with peripheral and rear sides (8, 9) surrounding the front side screening off the infrared rays; wherein the reflector comprising a focussing curvature, wherein the at least one heating tube element is arranged in a focussing area of the curvature; wherein arranged between the infrared reflector and the surrounding housing is an air convention channel which has openings (28 to 30) to the surrounding air; characterised in that - within the heating tube, the heating tube element comprises a plurality of carbon fibres which form a dimensionally stable infrared heating spiral of a carbon cord; - the transparent front side is formed by a white or milky-looking front glass plate, wherein in the visible wave length range λ R the front glass plate has a coefficient of transparency of under 40 % and in the transition ranges of 1.2 μm ≤ λ R ≤ n 2.4 μm a coefficient of transparency of between 50 % and 90 %, - the carbon fibres have an operating temperature of between 1400 °C ≤ T B ≤ 1800 °C. - at least one heating tube element with a heating tube that is transparent or semi-transparent for infrared rays; - at least one reflector, wherein the reflector is an infrared reflector adapted to the infrared spectrum of the heating tube element; - a housing for a front side transparent for infrared rays and with peripheral and rear sides (8, 9) surrounding the front side screening off the infrared rays; - within the heating tube, the heating tube element comprises a plurality of carbon fibres which form a dimensionally stable infrared heating spiral of a carbon cord; - the transparent front side is formed by a white or milky-looking front glass plate, wherein in the visible wave length range λ R the front glass plate has a coefficient of transparency of under 40 % and in the transition ranges of 1.2 μm ≤ λ R ≤ n 2.4 μm a coefficient of transparency of between 50 % and 90 %, - the carbon fibres have an operating temperature of between 1400 °C ≤ T B ≤ 1800 °C.
A method for securely configuring a customer premise equipment in a network, the network including a configuration server, a dynamic host configuration protocol, DHCP, server, and the customer premise equipment, the method comprising: receiving at the DHCP server a request from the customer premise equipment for leasing an Internet Protocol, IP, address to the customer premise equipment; embedding by the DHCP server at least a portion of a Media Access Control, MAC, address of the customer premise equipment into the IP address leased to the customer premise equipment; leasing by the DHCP server the IP address to the customer premise equipment; and establishing a secure connection between the configuration server and the customer premise equipment for transfer of a configuration file and a permanent set of encryption keys, wherein the configuration file and the permanent set of encryption keys are used to securely configure the customer premise equipment. receiving at the DHCP server a request from the customer premise equipment for leasing an Internet Protocol, IP, address to the customer premise equipment; embedding by the DHCP server at least a portion of a Media Access Control, MAC, address of the customer premise equipment into the IP address leased to the customer premise equipment; leasing by the DHCP server the IP address to the customer premise equipment; and establishing a secure connection between the configuration server and the customer premise equipment for transfer of a configuration file and a permanent set of encryption keys, wherein the configuration file and the permanent set of encryption keys are used to securely configure the customer premise equipment.
A delivery system for delivering a stent mounted heart valve through an expandable introducer sheath, the delivery system comprising: an elongate catheter having proximal and distal ends, a stent mounted heart valve mounted at the distal end of the catheter; a capsule extending around and enclosing the stent mounted heart valve, the capsule having a distal end with a capsule diameter; a nosecone including a tapered distal end and a proximal end, the proximal end engaged to the distal end of the capsule; and a protrusion positioned on a distal region of the capsule and extending circumferentially around the capsule, the protrusion for urging an expandable introducer sheath away from the capsule, thereby reducing an average peak push force resulting from advancement of the capsule through the sheath. an elongate catheter having proximal and distal ends, a stent mounted heart valve mounted at the distal end of the catheter; a capsule extending around and enclosing the stent mounted heart valve, the capsule having a distal end with a capsule diameter; a nosecone including a tapered distal end and a proximal end, the proximal end engaged to the distal end of the capsule; and a protrusion positioned on a distal region of the capsule and extending circumferentially around the capsule, the protrusion for urging an expandable introducer sheath away from the capsule, thereby reducing an average peak push force resulting from advancement of the capsule through the sheath.
A method of modifying a targeted site of a double-stranded DNA, comprising a step of introducing a complex wherein a nucleic acid sequence-recognizing module that specifically binds to a target nucleotide sequence in a given double-stranded DNA and PmCDA1 are bonded, into a mammalian cell containing the double-stranded DNA, and culturing the cell at a temperature of 20°C to 35°C at least temporarily to convert one or more nucleotides in the targeted site to other one or more nucleotides or delete one or more nucleotides, or insert one or more nucleotides into said targeted site, without cleaving at least one strand of said double-stranded DNA in the targeted site, wherein the nucleic acid sequence-recognizing module is a CRISPR-Cas system wherein at least one DNA cleavage ability of Cas is inactivated.
Method for calibrating an apparatus for producing an object by means of additive manufacturing, wherein said apparatus comprises: - a process chamber for receiving a bath of material which can be solidified by exposure to electromagnetic radiation; - a support for positioning the object in relation to the surface level of the bath of material; and - a solidifying device for solidifying a selective layer-part of the material on the surface level by means of electromagnetic radiation; wherein said method comprises the step of providing, on or near the support, a calibration marker (Mc) that faces the solidifying device, and the step of providing a calibration system with an imaging device that can be directed to said support, wherein the imaging device is arranged in such a way that an optical path of the imaging device, in use of the apparatus, coincides, preferably at least partly, with an optical path of the electromagnetic radiation of the solidifying device; and wherein the method comprises the further steps of: a) determining, with the imaging device, a measure for the position of the calibration marker (Mc); b) controlling the solidifying device for making a solidifying marker (Ms) that relates to the calibration marker (Mc); c) determining, with the imaging device, a measure for the position of the solidifying marker (Ms); d) determining, with the calibration system, at least a correction vector (Vsc) based on the positions of both the calibration marker (Mc) and the solidifying marker (Ms) related to this calibration marker (Mc), wherein the step of determining a measure for the position of the calibration marker (Mc) comprises: - determining an expected position of the calibration marker (Mc); - controlling, based on said expected position, the apparatus and determining a resulting set position. - a process chamber for receiving a bath of material which can be solidified by exposure to electromagnetic radiation; - a support for positioning the object in relation to the surface level of the bath of material; and - a solidifying device for solidifying a selective layer-part of the material on the surface level by means of electromagnetic radiation; a) determining, with the imaging device, a measure for the position of the calibration marker (Mc); b) controlling the solidifying device for making a solidifying marker (Ms) that relates to the calibration marker (Mc); c) determining, with the imaging device, a measure for the position of the solidifying marker (Ms); d) determining, with the calibration system, at least a correction vector (Vsc) based on the positions of both the calibration marker (Mc) and the solidifying marker (Ms) related to this calibration marker (Mc), wherein the step of determining a measure for the position of the calibration marker (Mc) comprises: - determining an expected position of the calibration marker (Mc); - controlling, based on said expected position, the apparatus and determining a resulting set position. - determining an expected position of the calibration marker (Mc); - controlling, based on said expected position, the apparatus and determining a resulting set position.
A method of forming a component of complex shape from an Al-alloy sheet or a Mg- alloy sheet, the method comprising the steps of: a) heating the sheet to a temperature below the solution heat treatment temperature for the alloy and below that at which inclusions in the alloy melt and at which formability of the alloy is greater than at the SHT temperature; and then; b) forming the heated sheet between heated dies into or towards the complex shape; c) heating the sheet to its SHT temperature and substantially maintaining that temperature until SHT has been completed; and d) quenching the solution heat treated sheet between cold dies and at the same time completing the forming into the complex shape or maintaining that shape. a) heating the sheet to a temperature below the solution heat treatment temperature for the alloy and below that at which inclusions in the alloy melt and at which formability of the alloy is greater than at the SHT temperature; and then; b) forming the heated sheet between heated dies into or towards the complex shape; c) heating the sheet to its SHT temperature and substantially maintaining that temperature until SHT has been completed; and d) quenching the solution heat treated sheet between cold dies and at the same time completing the forming into the complex shape or maintaining that shape.