mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication method for performing a machine type communication, MTC, between a base station and a MTC terminal in a LTE system by using narrow bands including 6 resource blocks, comprising: transmitting, from the base station to the MTC terminal, a radio resource control, RRC, message including information specifying a bandwidth supportable by the MTC terminal, wherein the bandwidth supportable by the MTC terminal is larger than a narrow band of 6PRBs and narrower than a system bandwidth of the LTE system; transmitting, from the base station to the MTC terminal, Downlink Control information, DCI, of M-PDCCH including narrow band allocation information for allocating a first narrow band to the MTC terminal as allocation information of the narrow band used for the machine type communication, MTC; changing, by the base station, a number of bits of the narrow band allocation information included in the DCI according to the bandwidth supportable by the MTC terminal specified by the information included in the RRC message; and performing by the MTC terminal, the machine type communication, MTC, by using the first narrow band based on the narrow band allocation information. transmitting, from the base station to the MTC terminal, a radio resource control, RRC, message including information specifying a bandwidth supportable by the MTC terminal, wherein the bandwidth supportable by the MTC terminal is larger than a narrow band of 6PRBs and narrower than a system bandwidth of the LTE system; transmitting, from the base station to the MTC terminal, Downlink Control information, DCI, of M-PDCCH including narrow band allocation information for allocating a first narrow band to the MTC terminal as allocation information of the narrow band used for the machine type communication, MTC; changing, by the base station, a number of bits of the narrow band allocation information included in the DCI according to the bandwidth supportable by the MTC terminal specified by the information included in the RRC message; and performing by the MTC terminal, the machine type communication, MTC, by using the first narrow band based on the narrow band allocation information.
A method of applying an address space to data storage, comprising: distributing user data throughout a plurality of storage nodes through erasure coding, wherein the plurality of storage nodes are housed within a chassis that couples the storage nodes as a cluster, each of the plurality of storage nodes having non-volatile solid-state memory; receiving a plurality of portions of user data for storage; assigning to each successive one of the plurality of portions of user data one of a plurality of sequential, nonrepeating addresses of an address space, the sequential nonrepeating addresses having a range that exceeds application of the sequential, nonrepeating addresses in a lifespan of the non-volatile solid-state memory; translating file paths of the plurality of portions of user data to inode identifiers; translating the inode identifiers to medium addresses, wherein the address space includes the medium address space; translating medium addresses of the plurality of portions of user data to segment addresses of the plurality of portions of user data in a segment address space, wherein the address space includes the segment address space; assigning each segment address to a data segment; separating each data segment into data shards; translating the segment address to a virtual allocation unit; assigning the virtual allocation unit to a data shard;. translating the virtual allocation unit to a physical flash memory location; tracking the translations with address translation tables; and writing each of the plurality of portions of user data to the non-volatile solid-state memory. distributing user data throughout a plurality of storage nodes through erasure coding, wherein the plurality of storage nodes are housed within a chassis that couples the storage nodes as a cluster, each of the plurality of storage nodes having non-volatile solid-state memory; receiving a plurality of portions of user data for storage; assigning to each successive one of the plurality of portions of user data one of a plurality of sequential, nonrepeating addresses of an address space, the sequential nonrepeating addresses having a range that exceeds application of the sequential, nonrepeating addresses in a lifespan of the non-volatile solid-state memory; translating file paths of the plurality of portions of user data to inode identifiers; translating the inode identifiers to medium addresses, wherein the address space includes the medium address space; translating medium addresses of the plurality of portions of user data to segment addresses of the plurality of portions of user data in a segment address space, wherein the address space includes the segment address space; assigning each segment address to a data segment; separating each data segment into data shards; translating the segment address to a virtual allocation unit; assigning the virtual allocation unit to a data shard;. translating the virtual allocation unit to a physical flash memory location; tracking the translations with address translation tables; and writing each of the plurality of portions of user data to the non-volatile solid-state memory.
A method for establishing an X2 IPSec comprises the following steps performed by an evolved NodeB, eNB: establishing, according to configuration by an operation and maintenance center, OMC, a neighborhood relation with an opposite eNB; acquiring, through S1 signaling, IP information for inter-eNB X2 SCTP link establishment for the opposite eNB; reporting, to the OMC, the acquired IP information for inter-eNB X2 SCTP link establishment for the opposite eNB, such that the OMC automatically generates configuration data for inter-eNB X2 SCTP link establishment according to the reported IP information for inter-eNB X2 SCTP link establishment, and automatically generates, according to template data or an operator planned negotiation parameter for inter-eNB X2 IPSec tunnel establishment, configuration data for inter-eNB X2 IPSec tunnel establishment, wherein the negotiation parameter comprises an authentication mode, an encryption algorithm, an authentication algorithm, a DH group, and a life cycle of IKE, as well as a mode, an encryption algorithm, an authentication algorithm, and a life cycle of IPSec; receiving the configuration data for inter-eNB X2 SCTP link establishment and the configuration data for inter-eNB X2 IPSec tunnel establishment automatically generated and issued by the OMC; and generating, according to the configuration data for inter-eNB X2 SCTP link establishment, an X2 SCTP message; generating, according to the configuration data for inter-eNB X2 IPSec tunnel establishment, an IPSec negotiating message; and triggering, through the X2 SCTP message, inter-eNB X2 IPSec tunnel establishment. establishing, according to configuration by an operation and maintenance center, OMC, a neighborhood relation with an opposite eNB; acquiring, through S1 signaling, IP information for inter-eNB X2 SCTP link establishment for the opposite eNB; reporting, to the OMC, the acquired IP information for inter-eNB X2 SCTP link establishment for the opposite eNB, such that the OMC automatically generates configuration data for inter-eNB X2 SCTP link establishment according to the reported IP information for inter-eNB X2 SCTP link establishment, and automatically generates, according to template data or an operator planned negotiation parameter for inter-eNB X2 IPSec tunnel establishment, configuration data for inter-eNB X2 IPSec tunnel establishment, wherein the negotiation parameter comprises an authentication mode, an encryption algorithm, an authentication algorithm, a DH group, and a life cycle of IKE, as well as a mode, an encryption algorithm, an authentication algorithm, and a life cycle of IPSec; receiving the configuration data for inter-eNB X2 SCTP link establishment and the configuration data for inter-eNB X2 IPSec tunnel establishment automatically generated and issued by the OMC; and generating, according to the configuration data for inter-eNB X2 SCTP link establishment, an X2 SCTP message; generating, according to the configuration data for inter-eNB X2 IPSec tunnel establishment, an IPSec negotiating message; and triggering, through the X2 SCTP message, inter-eNB X2 IPSec tunnel establishment.
A contact vibration detection device for detecting contact vibration due to contact between a rotational shaft and a stationary part, the contact vibration detection device being characterized by comprising: a rotation waveform determination unit configured to determine a rotation waveform of the rotational shaft, the rotation waveform representing a relationship between the displacement of the rotational shaft generated as the rotational shaft rotates and a phase angle of the rotational shaft; a parameter change detection unit configured to detect a change in a parameter of at least one of an effective value of the rotation waveform or the phase angle of the rotation waveform; and a contact vibration determination unit configured to determine whether the contact vibration occurs based on presence or absence of the change in the parameter, wherein the parameter change detection unit is configured to detect a change in the effective value and a change in the phase angle, and wherein the contact vibration determination unit is configured to determine that the contact vibration occurs if the change in the effective value and the change in the phase angle are detected. a rotation waveform determination unit configured to determine a rotation waveform of the rotational shaft, the rotation waveform representing a relationship between the displacement of the rotational shaft generated as the rotational shaft rotates and a phase angle of the rotational shaft; a parameter change detection unit configured to detect a change in a parameter of at least one of an effective value of the rotation waveform or the phase angle of the rotation waveform; and a contact vibration determination unit configured to determine whether the contact vibration occurs based on presence or absence of the change in the parameter, wherein the parameter change detection unit is configured to detect a change in the effective value and a change in the phase angle, and wherein the contact vibration determination unit is configured to determine that the contact vibration occurs if the change in the effective value and the change in the phase angle are detected.
Biodegradable fleece, containing (i) at least one polymer for induction of primary haemostasis, (ii) at least one non-proteinogenic, low molecular, water-soluble activator of secondary haemostasis, and (iii) at least one non-proteinogenic, low molecular, water-soluble inhibitor of fibrinolysis. (i) at least one polymer for induction of primary haemostasis, (ii) at least one non-proteinogenic, low molecular, water-soluble activator of secondary haemostasis, and (iii) at least one non-proteinogenic, low molecular, water-soluble inhibitor of fibrinolysis.
Backfeed stage of a radial turbo fluid energy machine (RTFEM), especially of a radial turbocompressor, for deflecting a flow direction of a process fluid issuing from a rotor, rotating around an axis, from radially outward to radially inward, comprising a backfeed duct, which has three adjacent sections (S1, S2, S3) in the flow direction, wherein a first section is designed for conducting the process fluid radially outward, wherein a second section is designed for deflecting the process fluid from radially outward to radially inward, wherein a third section is designed for conducting the process fluid radially inward, wherein the second section and the third section, or only the third section, have/has first guide vanes which define flow passages of the backfeed duct in relation to each other in the circumferential direction, wherein the second section and the third section, or only the third section, have/has second guide vanes which are offset downstream by leading edges (L2LE) in relation to leading edges (L1LE) of the first guide vanes, which second guide vanes define flow passages of the backfeed duct in relation to each other in the circumferential direction, wherein the second guide vanes are designed and arranged in such a way that in a radially extending plane in the region of the axial extent of the third section a connecting line (CLTE) through two trailing edges (L1TE) of adjacent first guide vanes is not divided in the middle by a radial line through the leading edge (L1LE) of a second guide vane which is arranged between the two first guide vanes in the circumferential direction, wherein the first guide vanes each have a concave pressure side and a convex suction side and each flow passage in the region of the first guide vanes is defined by a pressure side of a first guide vane and a suction side of another adjacent first guide vane, characterized in that the second guide vane which is arranged downstream between the two first guide vanes is arranged closer to the suction side of the other adjacent first guide vane in the circumferential direction.
A standing wave oscillator comprising: a transmission line; and an even number of at least four gain stages (402, 404, 452, 454), each gain stage being connected to the transmission line, each gain stage being located at a respective location along a length of the transmission line; the gain stages (402, 404, 452, 454) being configured to generate a standing wave oscillator signal along the length of the transmission line, when a supply voltage is applied to at least one end of the transmission line; the location of each gain stage being non-coincidental with a location of maximum amplitude of the standing wave oscillator signal. a transmission line; and an even number of at least four gain stages (402, 404, 452, 454), each gain stage being connected to the transmission line, each gain stage being located at a respective location along a length of the transmission line; the gain stages (402, 404, 452, 454) being configured to generate a standing wave oscillator signal along the length of the transmission line, when a supply voltage is applied to at least one end of the transmission line; the location of each gain stage being non-coincidental with a location of maximum amplitude of the standing wave oscillator signal.
A method for performing a random access procedure by a user equipment in a wireless communication system, the method comprising: transmitting (S1410, S1510, S1610) a preamble for random access to a base station; receiving (S1620a, S1630a) first downlink control information masked with a Random Access-Radio Network Temporary Identity, RA-RNTI, and second downlink control information masked with a Cell-RNTI, C-RNTI, in a same subframe or transmission time interval, TTI; decoding the first and second downlink control information received; receiving (S1420, S1520b, S1620b) a random access response message through a first Physical Downlink Shared Channel, PDSCH, indicated by the first downlink control information from the base station after the preamble is transmitted; and transmitting (S1450, S1550, S1650) a Physical Uplink Shared Channel, PUSCH, according to the random access response message, wherein a second PDSCH indicated by the second downlink control information is not decoded (S1440, S1540, S1640). transmitting (S1410, S1510, S1610) a preamble for random access to a base station; receiving (S1620a, S1630a) first downlink control information masked with a Random Access-Radio Network Temporary Identity, RA-RNTI, and second downlink control information masked with a Cell-RNTI, C-RNTI, in a same subframe or transmission time interval, TTI; decoding the first and second downlink control information received; receiving (S1420, S1520b, S1620b) a random access response message through a first Physical Downlink Shared Channel, PDSCH, indicated by the first downlink control information from the base station after the preamble is transmitted; and transmitting (S1450, S1550, S1650) a Physical Uplink Shared Channel, PUSCH, according to the random access response message, wherein a second PDSCH indicated by the second downlink control information is not decoded (S1440, S1540, S1640).
A method of mounting a nipple on a flexible tubular pipe end, the method being of the type according to which: there is provided a flexible tubular pipe comprising an inner polymeric tube, an armor around said inner polymeric tube and an outer polymeric sheath around said armor, said armor including armor threads wound around said inner polymeric tube; said armor is cropped at said pipe end so as to release free ends of armor threads and to fold back said free ends of armor threads against said outer polymeric sheath; said free ends of armor threads are folded back against said outer polymeric sheath; there is provided a nipple comprising a mounting end; characterized in that it furthermore comprises the following steps: said mounting end is fitted into the end of said pipe; there is provided a sleeve suitable for shrouding said pipe end; a deformable leak-tight annular chamber is formed inside said sleeve, said annular chamber being intended to surround said pipe end; said pipe end is shrouded with said sleeve; a pressurized fluid is injected into said annular chamber to expand said annular chamber and hold said free ends of armor threads gripped between said outer polymeric sheath and said sleeve and so as to clamp said pipe end onto said mounting end there is provided a flexible tubular pipe comprising an inner polymeric tube, an armor around said inner polymeric tube and an outer polymeric sheath around said armor, said armor including armor threads wound around said inner polymeric tube; said armor is cropped at said pipe end so as to release free ends of armor threads and to fold back said free ends of armor threads against said outer polymeric sheath; said free ends of armor threads are folded back against said outer polymeric sheath; there is provided a nipple comprising a mounting end; characterized in that it furthermore comprises the following steps: said mounting end is fitted into the end of said pipe; there is provided a sleeve suitable for shrouding said pipe end; a deformable leak-tight annular chamber is formed inside said sleeve, said annular chamber being intended to surround said pipe end; said pipe end is shrouded with said sleeve; a pressurized fluid is injected into said annular chamber to expand said annular chamber and hold said free ends of armor threads gripped between said outer polymeric sheath and said sleeve and so as to clamp said pipe end onto said mounting end said mounting end is fitted into the end of said pipe; there is provided a sleeve suitable for shrouding said pipe end; a deformable leak-tight annular chamber is formed inside said sleeve, said annular chamber being intended to surround said pipe end; said pipe end is shrouded with said sleeve; a pressurized fluid is injected into said annular chamber to expand said annular chamber and hold said free ends of armor threads gripped between said outer polymeric sheath and said sleeve and so as to clamp said pipe end onto said mounting end
A polyacrylamide gel for gel electrophoresis, comprising: a gel buffer comprising: a gel amine buffer selected from bis(2-hydroxyethyl)-amino-tris(hydroxymethyl)-methane, 1,3-bis(tris(hydroxymethyl)methylamino)propane, and tris(hydroxymethyl)aminomethane, wherein the concentration of the gel amine buffer ranges from about 40 mM to about 150 mM; a primary gel ampholyte; and a conjugate gel ampholyte that is threonine. a gel amine buffer selected from bis(2-hydroxyethyl)-amino-tris(hydroxymethyl)-methane, 1,3-bis(tris(hydroxymethyl)methylamino)propane, and tris(hydroxymethyl)aminomethane, wherein the concentration of the gel amine buffer ranges from about 40 mM to about 150 mM; a primary gel ampholyte; and a conjugate gel ampholyte that is threonine.
Process for manufacturing a plate heat exchanger, in particular an air-air plate heat exchanger, made of plastic, in which individual plates made of plastic are connected to each other to form a plate pair, forming a flow duct for a first medium, and plate pairs are connected to one another to form a plate stack, forming a flow duct for a second medium, wherein the connection of the individual plates forming a plate pair and the plate pairs forming a plate stack is carried out by means of laser welding, wherein the individual plates and the plate pairs are laser- welded to one another along two longitudinal edges opposing each other, wherein all the individual plates are laser-welded to one another simultaneously, to form both plate pairs and also a plate stack, wherein the individual plates of the plate heat exchanger are stacked up within a laser welding machine comprising a holding device in the form of a cage-like arrangement and comprising a welding device, and are welded to one another simultaneously in one operation by means of a laser of the welding device to form a plate heat exchanger.
A turbine engine comprising: a compressor section including a first compressor section and a second compressor section; and a turbine section including a first turbine section driving the first compressor section through an inner shaft and a second turbine section driving the second compressor section through an outer shaft; and a bumper, comprising a portion of the inner shaft and being spaced radially from the outer shaft, for reducing potential inter-shaft loads resulting from contact between the inner shaft and the outer shaft, wherein the inner shaft and the outer shaft are concentric about a common axis of rotation, characterised in that: the bumper comprises a bumper diameter greater than diameters of the inner shaft surrounding the bumper diameter, the outer shaft includes an aft end disposed annularly about the bumper. a compressor section including a first compressor section and a second compressor section; and a turbine section including a first turbine section driving the first compressor section through an inner shaft and a second turbine section driving the second compressor section through an outer shaft; and a bumper, comprising a portion of the inner shaft and being spaced radially from the outer shaft, for reducing potential inter-shaft loads resulting from contact between the inner shaft and the outer shaft, wherein the inner shaft and the outer shaft are concentric about a common axis of rotation, characterised in that: the bumper comprises a bumper diameter greater than diameters of the inner shaft surrounding the bumper diameter, the outer shaft includes an aft end disposed annularly about the bumper.
Use of a composition comprising from 2% to 10% by weight of 2-bromo-2-nitropropane-1,3-diol based on the total weight of the composition, and at least one gelling agent, present in a comprised amount from 5% to 15% by weight based on the total weight of the composition, for thanatopractice treatment of eschars and external injuries.