mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for a first vehicle, comprising: a star vision system configured to provide first data associated with the first vehicle in response to captured star positions; an inertial reference system configured to use the first data to provide a first absolute position of the vehicle; a first communication interface configured to provide a first communication to a second vehicle in the environment and receive a second communication from the second vehicle comprising a second absolute position of the second vehicle, the first communication comprising the first absolute position and being capable of being used for relative positioning by the second vehicle; and a relative positioning system configured to determine a relative position of the first vehicle to the second vehicle using the second communication. a star vision system configured to provide first data associated with the first vehicle in response to captured star positions; an inertial reference system configured to use the first data to provide a first absolute position of the vehicle; a first communication interface configured to provide a first communication to a second vehicle in the environment and receive a second communication from the second vehicle comprising a second absolute position of the second vehicle, the first communication comprising the first absolute position and being capable of being used for relative positioning by the second vehicle; and a relative positioning system configured to determine a relative position of the first vehicle to the second vehicle using the second communication.
A method of fracturing comprising: drilling a well hole into a subterranean well location; characterized by further comprising: flowing a combustible mixture of an oxidizer and a fuel into the well hole ; inserting a plug into the well hole ;flowing an aqueous mixture with a mass into the well hole , wherein the aqueous mixture is maintained separate from the combustible mixture via the plug ; compressing the combustible mixture with the mass of the aqueous mixture pushing the plug ; causing the combustible mixture to auto-ignite under a compressive force of the mass; fracturing at least a portion of the subterranean well location with an explosion from the auto-ignition; and collecting a plurality of hydrocarbons emitted from fissures in the fractured subterranean well location. drilling a well hole into a subterranean well location; characterized by further comprising: flowing a combustible mixture of an oxidizer and a fuel into the well hole ; inserting a plug into the well hole ;flowing an aqueous mixture with a mass into the well hole , wherein the aqueous mixture is maintained separate from the combustible mixture via the plug ; compressing the combustible mixture with the mass of the aqueous mixture pushing the plug ; causing the combustible mixture to auto-ignite under a compressive force of the mass; fracturing at least a portion of the subterranean well location with an explosion from the auto-ignition; and collecting a plurality of hydrocarbons emitted from fissures in the fractured subterranean well location. flowing a combustible mixture of an oxidizer and a fuel into the well hole ; inserting a plug into the well hole ;flowing an aqueous mixture with a mass into the well hole , wherein the aqueous mixture is maintained separate from the combustible mixture via the plug ; compressing the combustible mixture with the mass of the aqueous mixture pushing the plug ; causing the combustible mixture to auto-ignite under a compressive force of the mass; fracturing at least a portion of the subterranean well location with an explosion from the auto-ignition; and collecting a plurality of hydrocarbons emitted from fissures in the fractured subterranean well location.
A multi-layered security system having an attack side adapted to receive a first attack from an intruder, the system comprising a plurality of layers of defense, the layers of defense being adapted for receiving the first attack and subsequent second attacks from the intruder, the plurality of layers being defined by a multitude of barriers having at least first and third barriers, wherein the first barrier and third barrier are arranged in a spaced apart relationship with respect to each other defining a second barrier comprising a passage located between the first and third barriers (12a and 12c), the first barrier comprises a plurality of first panels arranged side by side and the third barrier comprises a plurality of second panels arranged side by side, wherein the security system further comprises a link bar comprising first means for joining together adjacent first panels for defining the first barrier , second means for joining together adjacent second panels for defining the third barrier , and third means for attaching the first and third barriers (12a and 12c) in a spaced apart relationship opposite to each other, characterized in that the passage allows a person to walk along the passage.
Fence composed of fence posts in the form of a profile with grooves with a bottom delimited by parallel legs and panels attached between the fence posts and composed of vertical and horizontal wires which together form a mesh panel with side edges , whereby each side edge is attached in a groove of said grooves of a respective fence post , whereby said mesh panel is attached with a vertical wire in the groove by means of a clip containing a support platelet with a width (E) delimited between two side edges and intended to be attached horizontally in said groove of the fence post to support a horizontal wire of the panel, whereby the panel with said horizontal wire rests on the support platelet , said support platelet further contains at least one groove for a vertical wire on said side edge of the panel , characterised in that said support platelet further contains a supporting edge oriented toward the bottom of the groove of the fence post to rest against the bottom of the groove and whereby said at least one groove of said support platelet is essentially perpendicular to the supporting edge and is connected with an edge of the support platelet via an entry for the vertical wire and via a connecting groove which is at least in part parallel or at an angle with the supporting edge , and whereby the concerned vertical wire is enclosed in one of the grooves of the support platelet which extend perpendicularly to the supporting edge of the support platelet , essentially parallel with the legs of the groove of the fence post .
An electromagnetic-wave absorbing sheet comprising an electromagnetic-wave absorbing layer that contains a magnetic iron oxide (la) that magnetically resonates in a frequency band equal to or higher than a millimeter-wave band as an electromagnetic-wave absorbing material and a rubber binder (lb), characterized in that the electromagnetic-wave absorbing sheet has a maximum elongation percentage of an elastic region in one in-plane direction of 20% to 200%, and an input impedance of the electromagnetic-wave absorbing layer when stretched within a range of the elastic region is in a range from 360 Ω to 450 Ω.
A non-volatile solid-state storage , comprising: a non-volatile random access memory, NVRAM, addressable by a first controller internal to the non-volatile solid-state storage , and by a second controller external to the non-volatile solid-state storage , the NVRAM configured to store user data and metadata relating to the user data; and a flash memory , addressable by the first controller and by the second controller , characterized in that the first controller is configured to cooperate with further non-volatile solid state storage as a storage cluster , the storage cluster having a plurality of storage nodes and a plurality of authorities associated with the plurality of storage nodes , the plurality of storage nodes configured to write data segments across the non-volatile solid-state storage , with each data segment associated with one of the plurality of authorities and each authority associated with a storage node of the storage cluster such that for each data segment, as a logical container of data, a segment identifier determines which of the plurality of authorities reads or writes the data segment and points to storage nodes for data striping for the data segment. a non-volatile random access memory, NVRAM, addressable by a first controller internal to the non-volatile solid-state storage , and by a second controller external to the non-volatile solid-state storage , the NVRAM configured to store user data and metadata relating to the user data; and a flash memory , addressable by the first controller and by the second controller , characterized in that the first controller is configured to cooperate with further non-volatile solid state storage as a storage cluster , the storage cluster having a plurality of storage nodes and a plurality of authorities associated with the plurality of storage nodes , the plurality of storage nodes configured to write data segments across the non-volatile solid-state storage , with each data segment associated with one of the plurality of authorities and each authority associated with a storage node of the storage cluster such that for each data segment, as a logical container of data, a segment identifier determines which of the plurality of authorities reads or writes the data segment and points to storage nodes for data striping for the data segment.
Device for the reduction of gust loads occurring on a number n of aerodynamic control surfaces of an aircraft, where n ≥ 1, wherein the aerodynamic control surfaces can be moved in each case by at least one actuator , and a flight control system provides command variables X soll and/or Ẋ soll for purposes of actuating the at least one actuator of a respective aerodynamic control surface , wherein X soll indicates a target position, or a target force, or a target moment, and Ẋ soll indicates a change in X soll over time, comprising: - a sensor system for each aerodynamic control surface , which determines external forces/moments F ext,Boe , generated by gusts, acting on the respective aerodynamic control surface , and - a respective controller , for purposes of controlling the at least one actuator on the basis of: F ext,Boe , the command variables X soll and/or Ẋ soll , as well as control variables X and/or X, generated by the actuator , and detected by a sensor system , wherein the controller has a control behaviour, in which the forces/moments F ext,Boe generated by gusts are compensated for on the respective aerodynamic control surface . - a sensor system for each aerodynamic control surface , which determines external forces/moments F ext,Boe , generated by gusts, acting on the respective aerodynamic control surface , and - a respective controller , for purposes of controlling the at least one actuator on the basis of: F ext,Boe , the command variables X soll and/or Ẋ soll , as well as control variables X and/or X, generated by the actuator , and detected by a sensor system , wherein the controller has a control behaviour, in which the forces/moments F ext,Boe generated by gusts are compensated for on the respective aerodynamic control surface .
A pipe expander comprising: a cone that is fitted around the tip of a draw bar connected to a cylinder and has an outer periphery of which the size changes gradually in an axial direction thereof; and a pipe expansion head outer surface member disposed on the outer periphery of the cone , wherein the cone pulled by the cylinder in the axial direction radially expands the pipe expansion head outer surface member to expand a steel pipe placed on the outer periphery of the pipe expansion head outer surface member , characterized in that the cone has a detachable liner on a contact surface thereof with the pipe expansion head outer surface member , wherein on the contact surfaces of the liner and the pipe expansion head outer surface member , there is a difference in hardness between the liner and the pipe expansion head outer surface member , wherein the difference in hardness is 20 to 50 HS. a cone that is fitted around the tip of a draw bar connected to a cylinder and has an outer periphery of which the size changes gradually in an axial direction thereof; and a pipe expansion head outer surface member disposed on the outer periphery of the cone , wherein the cone pulled by the cylinder in the axial direction radially expands the pipe expansion head outer surface member to expand a steel pipe placed on the outer periphery of the pipe expansion head outer surface member , characterized in that the cone has a detachable liner on a contact surface thereof with the pipe expansion head outer surface member ,
Method for imaging a structure composed of at least one wave guide connected to a junction , the structure supporting elastic wave guided propagation modes, the structure having at least one defect, the method comprising the following steps: - for at least one operating frequency, acquiring several measurements of signals propagating in the structure by means of a plurality of pairs of non-colocalized elastic wave sensors , the measurements being organized in a measurement matrix with dimensions equal to the number of transmitting sensors by the number of receiving sensors, - determining a plurality of propagation modes guided by the structure, - correcting the measurements on the basis of ultrasound signals measured or simulated for the same structure in the absence of any defect, - converting the measurement matrix into a wave field scattering matrix U, - determining, at each point of a sampling grid , a test vector F characteristic of the structure without any defect, the components of which are the projections of a Green tensor from the defect-free domain onto the transverse functions of the guided propagation modes, - applying a numerical inversion method to determine a vector H of modal components such that U.H=F at each point of a sampling grid, - determining an image of the structure on the basis of the vector H. - for at least one operating frequency, acquiring several measurements of signals propagating in the structure by means of a plurality of pairs of non-colocalized elastic wave sensors , the measurements being organized in a measurement matrix with dimensions equal to the number of transmitting sensors by the number of receiving sensors, - determining a plurality of propagation modes guided by the structure, - correcting the measurements on the basis of ultrasound signals measured or simulated for the same structure in the absence of any defect, - converting the measurement matrix into a wave field scattering matrix U, - determining, at each point of a sampling grid , a test vector F characteristic of the structure without any defect, the components of which are the projections of a Green tensor from the defect-free domain onto the transverse functions of the guided propagation modes, - applying a numerical inversion method to determine a vector H of modal components such that U.H=F at each point of a sampling grid, - determining an image of the structure on the basis of the vector H.
A method of reporting CSI information, characterized by comprising: receiving, by a terminal, an uplink channel resource configuration signaling and a Demodulation Reference Signal, DMRS, configuration signaling, sent by a base station, wherein the uplink channel resource configuration signaling comprises an indication of PRBs allocated to an uplink channel; wherein the DMRS configuration signaling comprises an indication of a number of first OFDM symbols allocated to DMRSs in each of the PRBs and of position/s of the first OFDM symbols in each of the PRBs configured by a system, the DMRSs being for uplink transmission from the terminal to the base station on the uplink channel, wherein the indication of the number of the first OFDM symbols is adapted to indicate a number among several different possibilities configured by the system; determining for each of the PRBs a mapping symbol set as a set of all OFDM symbols within each of the PRBs which are at one or both sides directly adjacent to each of the first OFDM symbols (S11); measuring, by the terminal, a downlink channel, and calculating Channel State Information, CSI, according to a resulting of the measurement (S12); coding, by the terminal, the CSI information, and mapping, for transmission, an information part containing Rank Indication, RI, information in the coded CSI information onto Resource Elements, REs, of at least one OFDM symbol in at least one of the mapping symbol set/s (S13). receiving, by a terminal, an uplink channel resource configuration signaling and a Demodulation Reference Signal, DMRS, configuration signaling, sent by a base station, wherein the uplink channel resource configuration signaling comprises an indication of PRBs allocated to an uplink channel; wherein the DMRS configuration signaling comprises an indication of a number of first OFDM symbols allocated to DMRSs in each of the PRBs and of position/s of the first OFDM symbols in each of the PRBs configured by a system, the DMRSs being for uplink transmission from the terminal to the base station on the uplink channel, wherein the indication of the number of the first OFDM symbols is adapted to indicate a number among several different possibilities configured by the system; determining for each of the PRBs a mapping symbol set as a set of all OFDM symbols within each of the PRBs which are at one or both sides directly adjacent to each of the first OFDM symbols (S11); measuring, by the terminal, a downlink channel, and calculating Channel State Information, CSI, according to a resulting of the measurement (S12); coding, by the terminal, the CSI information, and mapping, for transmission, an information part containing Rank Indication, RI, information in the coded CSI information onto Resource Elements, REs, of at least one OFDM symbol in at least one of the mapping symbol set/s (S13).
A polymer composition [composition (C)] comprising: (a) a poly(aryletherketone) polymer [polymer (PAEK)]; (a-1) optionally, an aromatic sulfone polymer [polymer (SP)]; (b) an acidic glass fiber [glass fiber (F ac )] whose pH, measured in deionized water, is at most 7.0 and/or a neutral glass fiber [glass fiber (F n )] whose pH, measured in deionized water, is higher than 7.0 and at most 8.2; and (c) a basic inorganic additive [additive (A)] selected from the group consisting of calcium oxide, magnesium oxide, hydrotalcite, and mixtures thereof. (a) a poly(aryletherketone) polymer [polymer (PAEK)]; (a-1) optionally, an aromatic sulfone polymer [polymer (SP)]; (b) an acidic glass fiber [glass fiber (F ac )] whose pH, measured in deionized water, is at most 7.0 and/or a neutral glass fiber [glass fiber (F n )] whose pH, measured in deionized water, is higher than 7.0 and at most 8.2; and (c) a basic inorganic additive [additive (A)] selected from the group consisting of calcium oxide, magnesium oxide, hydrotalcite, and mixtures thereof.
A method for updating a manner of processing a packet of a service flow, wherein a first packet of the service flow is forwarded by using a first service function chain, SFC, and the method comprises: obtaining , by a control node, indication information from a service function, SF, node of the first SFC, wherein the indication information is used to indicate a manner of processing a second packet of the service flow, and the second packet reaches a processing node later than the first packet; obtaining , by the control node according to the indication information, the manner of processing the second packet, wherein the manner of processing the second packet does not comprise forwarding the second packet along the first SFC; and sending , by the control node, the manner of processing the second packet to the processing node. obtaining , by a control node, indication information from a service function, SF, node of the first SFC, wherein the indication information is used to indicate a manner of processing a second packet of the service flow, and the second packet reaches a processing node later than the first packet; obtaining , by the control node according to the indication information, the manner of processing the second packet, wherein the manner of processing the second packet does not comprise forwarding the second packet along the first SFC; and sending , by the control node, the manner of processing the second packet to the processing node.
A compound of formula (I): R 1 -W m -X n -AA 1 -AA 2 -AA 3 -AA 4 -AA 5 -AA 6 -AA 7 -AA 8 -AA 9 -Y p -Z q -R 2 (I), its stereoisomers and/or its cosmetically or pharmaceutically acceptable salts, wherein: AA 1 is Phe; AA 2 is Trp; AA 3 is selected from the group consisting of Met, Leu and Ile; AA 4 is selected from the group consisting of Lys, Arg and Gln; AA 5 is Arg; AA 6 is Lys; AA 7 is selected from the group consisting of Arg, Lys and His; AA 8 is selected from the group consisting of Val, Ile, Leu and Met; and AA 9 is Pro; W, X, Y and Z are each independently an amino acid; m, n, p and q are each independently 0 or 1; m+n+p+q is less than or equal to 2; R 1 is selected from the group consisting of H, a polymer derived from polyethylene glycol, a non-cyclic aliphatic group, alicyclyl, heterocyclyl, heteroarylalkyl, aryl, aralkyl and R 5 -CO-, wherein R 5 is selected from the group consisting of H, a non-cyclic aliphatic group, alicyclyl, aryl, aralkyl, heterocyclyl and heteroarylalkyl; R 2 is selected from the group consisting of -NR 3 R 4 , -OR 3 , -SR 3 , wherein R 3 and R 4 are independently selected from a group consisting of H, a polymer derived from polyethylene glycol, a non-cyclic aliphatic group, alicyclyl, heterocyclyl, heteroarylalkyl, aryl and aralkyl; and R 1 and R 2 are not amino acids. AA 1 is Phe; AA 2 is Trp; AA 3 is selected from the group consisting of Met, Leu and Ile; AA 4 is selected from the group consisting of Lys, Arg and Gln; AA 5 is Arg; AA 6 is Lys; AA 7 is selected from the group consisting of Arg, Lys and His; AA 8 is selected from the group consisting of Val, Ile, Leu and Met; and AA 9 is Pro; W, X, Y and Z are each independently an amino acid; m, n, p and q are each independently 0 or 1; m+n+p+q is less than or equal to 2; R 1 is selected from the group consisting of H, a polymer derived from polyethylene glycol, a non-cyclic aliphatic group, alicyclyl, heterocyclyl, heteroarylalkyl, aryl, aralkyl and R 5 -CO-, wherein R 5 is selected from the group consisting of H, a non-cyclic aliphatic group, alicyclyl, aryl, aralkyl, heterocyclyl and heteroarylalkyl; R 2 is selected from the group consisting of -NR 3 R 4 , -OR 3 , -SR 3 , wherein R 3 and R 4 are independently selected from a group consisting of H, a polymer derived from polyethylene glycol, a non-cyclic aliphatic group, alicyclyl, heterocyclyl, heteroarylalkyl, aryl and aralkyl; and R 1 and R 2 are not amino acids.