mhurhangee/ep-ind-claims huggingface dataset:
An electric thrust reverser system for an aircraft engine nacelle including at least one thrust reverser mechanism such as a thrust reverser door and an actuating mechanism (2 or 3) of the thrust reverser mechanism, the actuating mechanism (2 or 3) including a first and a second drive cylinder, each drive cylinder including a mechanical connection casing, a primary lock and a movable rod secured to a point connected to the thrust reverser mechanism, such as a thrust reverser door, a motor-actuated drive unit being mechanically connected via flexible shafts to the mechanical connection casing of each drive cylinder (6, 7) of the actuating mechanism (2 or 3) and set in motion by a command of a control unit via an electrical connection (16, 17) and a tertiary lock for securing the thrust reverser mechanism such as a thrust reverser door to a fixed structure of the nacelle, characterized in that the primary lock (8; 55, 55a) is integrated to the drive cylinder (6; 50), the drive cylinder being of the lost motion type.
A compound of the formula B-L-IA wherein B is a radical of a ligand of prostate specific membrane antigen (PSMA) of the formula L is a linker, wherein the linker is a peptide comprising a tripeptide of an aminoalkylcarboxylic acid and two Phe residues, or wherein the linker includes one or more hydrophilic linkers capable of interacting with one or more residues of PSMA, including amino acids that have hydrophilic side chains, said amino acids being chosen from the group consisting of: Ser, Thr, Cys, Arg, Orn, Lys, Asp, Glu and Gln; and IA is an imaging agent selected from the group consisting of a fluorescein, AlexaFluor 647, DyLight 680, DyLight 800, and CW 800; or a pharmaceutically acceptable salt thereof. B is a radical of a ligand of prostate specific membrane antigen (PSMA) of the formula L is a linker, wherein the linker is a peptide comprising a tripeptide of an aminoalkylcarboxylic acid and two Phe residues, or wherein the linker includes one or more hydrophilic linkers capable of interacting with one or more residues of PSMA, including amino acids that have hydrophilic side chains, said amino acids being chosen from the group consisting of: Ser, Thr, Cys, Arg, Orn, Lys, Asp, Glu and Gln; and IA is an imaging agent selected from the group consisting of a fluorescein, AlexaFluor 647, DyLight 680, DyLight 800, and CW 800; or a pharmaceutically acceptable salt thereof.
A method of estimating an amount of caving in an open hole drilling well, comprising: calculating an actual lag for a well by detecting a predetermined component of atmospheric air in a drilling fluid; calculating a theoretical lag for the well; and calculating a caving amount by comparing the actual lag and the theoretical lag. calculating an actual lag for a well by detecting a predetermined component of atmospheric air in a drilling fluid; calculating a theoretical lag for the well; and calculating a caving amount by comparing the actual lag and the theoretical lag.
A method of transferring Hybrid Automatic Repeat Request, HARQ, positive Acknowledgement, ACK, or Negative Acknowledgement, NACK, in a wireless communication system comprising a first wireless device, a second wireless device and a network node, wherein the network node is a base station, the method comprising: transmitting, by the network node, a first transmission directly to the first wireless device; in response thereto determining, by the first wireless device, if a first HARQ-ACK/NACK should be relayed by the second wireless device based on at least one of an uplink, UL, channel quality of the first wireless device, an UL channel resource availability of the first wireless device, an UL channel capacity of the first wireless device, and/or an urgency associated with the first HARQ-ACK/NACK; transmitting, by the first wireless device to the second wireless device, the first HARQ-ACK/NACK associated with the first transmission; and responsive to control information provided to the second wireless device indicating that the first HARQ-ACK/NACK is to be forwarded to the network node: relaying, by the second wireless device, the first HARQ-ACK/NACK to the network node. transmitting, by the network node, a first transmission directly to the first wireless device; in response thereto determining, by the first wireless device, if a first HARQ-ACK/NACK should be relayed by the second wireless device based on at least one of an uplink, UL, channel quality of the first wireless device, an UL channel resource availability of the first wireless device, an UL channel capacity of the first wireless device, and/or an urgency associated with the first HARQ-ACK/NACK; transmitting, by the first wireless device to the second wireless device, the first HARQ-ACK/NACK associated with the first transmission; and responsive to control information provided to the second wireless device indicating that the first HARQ-ACK/NACK is to be forwarded to the network node: relaying, by the second wireless device, the first HARQ-ACK/NACK to the network node.
A recombinant polypeptide, or an active fragment thereof, comprising an amino acid sequence, wherein the amino acid sequence of the recombinant polypeptide or of the active fragment has at least 90% identity to the amino acid sequence of SEQ ID NO:3 or SEQ ID NO:4, and wherein the recombinant polypeptide or the active fragment has proteolytic activity, and wherein the recombinant polypeptide or the active fragment retains at least 80% activity after 20 minutes at 50°C under stressed conditions comprising a Tris/EDTA assay.
A system for acquiring samples in a body of fluid, the system comprising: a containment unit that is negatively buoyant relative to the body of fluid; and a sampling array tethered to the containment unit, the sampling array including a plurality of sampling devices positioned along the array, for sampling the body of fluid at varying depths, the containment unit, together with the tethered sampling array being negatively buoyant; wherein the sampling array is positively buoyant relative to the body of fluid such that the sampling array, still tethered to the containment unit at a first end, ascends in the body of fluid, the system further including a latching mechanism (2204, 2602, 2606) for releasably holding the tethered sampling array in an initial position relative to the containment unit and a trigger mechanism that controls the latching mechanism (2204, 2602, 2606) to release the sampling array. a containment unit that is negatively buoyant relative to the body of fluid; and a sampling array tethered to the containment unit, the sampling array including a plurality of sampling devices positioned along the array, for sampling the body of fluid at varying depths, the containment unit, together with the tethered sampling array being negatively buoyant; wherein the sampling array is positively buoyant relative to the body of fluid such that the sampling array, still tethered to the containment unit at a first end, ascends in the body of fluid, the system further including a latching mechanism (2204, 2602, 2606) for releasably holding the tethered sampling array in an initial position relative to the containment unit and a trigger mechanism that controls the latching mechanism (2204, 2602, 2606) to release the sampling array.
A method for use in a network side equipment, for controlling working mode of high speed downlink packet access, HSDPA, system, comprising: determining whether an activation state of a high speed shared control channel, HS-SCCH, less operation mode of the HSDPA system needs to be changed; transmitting(103, 105) a physical layer signaling to a User Equipment, UE, to instruct the UE to activate or deactivate the HS-SCCH less operation mode if the activation state of the HS-SCCH less operation mode needs to be changed, wherein the physical layer signaling is preset or the physical layer signaling is generated after determining that the activation state of the HS-SCCH less operation mode needs to be changed; wherein the physical layer signaling is an HS-SCCH order for activating or deactivating the HS-SCCH less operation mode in HS-SCCH order, wherein the HS-SCCH order having order type of 000 and having a bit of activating or deactivating the HS-SCCH less operation mode set to a value indicating performing activation is served as an order of activating the HS-SCCH less operation mode; and the HS-SCCH order having order type of 000 and having the bit of activating or deactivating the HS-SCCH less operation mode set to a value different from the value indicating performing activation is served as an order of deactivating the HS-SCCH less operation mode. determining whether an activation state of a high speed shared control channel, HS-SCCH, less operation mode of the HSDPA system needs to be changed; transmitting(103, 105) a physical layer signaling to a User Equipment, UE, to instruct the UE to activate or deactivate the HS-SCCH less operation mode if the activation state of the HS-SCCH less operation mode needs to be changed, wherein the physical layer signaling is preset or the physical layer signaling is generated after determining that the activation state of the HS-SCCH less operation mode needs to be changed; wherein the physical layer signaling is an HS-SCCH order for activating or deactivating the HS-SCCH less operation mode in HS-SCCH order, wherein the HS-SCCH order having order type of 000 and having a bit of activating or deactivating the HS-SCCH less operation mode set to a value indicating performing activation is served as an order of activating the HS-SCCH less operation mode; and the HS-SCCH order having order type of 000 and having the bit of activating or deactivating the HS-SCCH less operation mode set to a value different from the value indicating performing activation is served as an order of deactivating the HS-SCCH less operation mode.
A battery storage device of a saddle-type electric vehicle including a battery case storing a battery (62A or 62B) and a case side connection terminal connected to a terminal portion of the battery (62A or 62B) stored in the battery case, the battery storage device of a vehicle comprising: a terminal displacement mechanism that causes the case side connection terminal to be displaced between a connection position contact-connected to the terminal portion of the battery (62A or 62B) and a retreat position separated from the connection position; and an operation member that is capable of operating the terminal displacement mechanism; wherein the battery case has a case side abutment seat (42-B) on which a bottom portion (62-B) of the battery (62A or 62B) abuts when the battery (62A or 62B) is inserted, and characterized in that the retreat position is a position at which the case side connection terminal is away from the terminal portion of the battery (62A or 62B) in an entering direction of the battery (62A or 62B) when the bottom portion (62-B) of the battery (62A or 62B) abuts the case side abutment seat (42-B). a terminal displacement mechanism that causes the case side connection terminal to be displaced between a connection position contact-connected to the terminal portion of the battery (62A or 62B) and a retreat position separated from the connection position; and an operation member that is capable of operating the terminal displacement mechanism; wherein the battery case has a case side abutment seat (42-B) on which a bottom portion (62-B) of the battery (62A or 62B) abuts when the battery (62A or 62B) is inserted, and characterized in that the retreat position is a position at which the case side connection terminal is away from the terminal portion of the battery (62A or 62B) in an entering direction of the battery (62A or 62B) when the bottom portion (62-B) of the battery (62A or 62B) abuts the case side abutment seat (42-B).
A capsule for a valve wherein the capsule comprises: at least one diaphragm, a valve seat, a capsule inlet, a capsule outlet, and a valve element to open or close the valve seat, wherein the at least one diaphragm has a first face and a second face, the second face being opposite to the first face and facing the valve seat and the outlet, and wherein a spring is arranged in the capsule to load the valve element, the spring being arranged on the side of the at least one diaphragm facing the capsule outlet, characterized in that the capsule comprises at least one thrust pad arranged at the first face of the at least one diaphragm and in that the capsule comprises an aperture facing the thrust pad.
An apparatus for receiving a random access response in 2-step random access, applicable to a user equipment, UE, side, the apparatus comprising: a first calculating unit configured to calculate a first RNTI, the first RNTI being different from an RA-RNTI actually used in 4-step random access; a first detecting unit configured to use the first RNTI to detect downlink control information, DCI, scheduling a random access response in a monitoring window; and a first receiving unit configured to, when the downlink control information is successfully detected, receive the random access response in a physical downlink shared channel, PDSCH, according to the downlink control information, characterised in that, when a slot or a symbol where an uplink shared channel is located is unavailable and a slot or a symbol where a preamble associated with the uplink shared channel is located is available, 2-step random access allows the slot or the symbol where a preamble associated with the uplink shared channel is located to be used for transmitting the preamble, and the monitoring window is located behind the slot or the symbol where the uplink shared channel is located. a first calculating unit configured to calculate a first RNTI, the first RNTI being different from an RA-RNTI actually used in 4-step random access; a first detecting unit configured to use the first RNTI to detect downlink control information, DCI, scheduling a random access response in a monitoring window; and a first receiving unit configured to, when the downlink control information is successfully detected, receive the random access response in a physical downlink shared channel, PDSCH, according to the downlink control information, characterised in that, when a slot or a symbol where an uplink shared channel is located is unavailable and a slot or a symbol where a preamble associated with the uplink shared channel is located is available, 2-step random access allows the slot or the symbol where a preamble associated with the uplink shared channel is located to be used for transmitting the preamble, and the monitoring window is located behind the slot or the symbol where the uplink shared channel is located.
A method for invalidating a digital certificate, comprising: determining whether a digital certificate is to be terminated, wherein the digital certificate is assigned with a certificate identification and a validity period; in response to the digital certificate being a digital certificate that is to be terminated, obtaining the validity period of the digital certificate; determining whether a current time is within the validity period; in response to the current time being within the validity period, determining that the digital certificate is a to-be-invalidated digital certificate; in response to the digital certificate being the to-be-invalidated digital certificate, obtaining the certificate identification of the digital certificate; and sending a recording request to a node in a blockchain network, wherein the recording request comprises the certificate identification to cause the node to record only the certificate identification in a blockchain. determining whether a digital certificate is to be terminated, wherein the digital certificate is assigned with a certificate identification and a validity period; in response to the digital certificate being a digital certificate that is to be terminated, obtaining the validity period of the digital certificate; determining whether a current time is within the validity period; in response to the current time being within the validity period, determining that the digital certificate is a to-be-invalidated digital certificate; in response to the digital certificate being the to-be-invalidated digital certificate, obtaining the certificate identification of the digital certificate; and sending a recording request to a node in a blockchain network, wherein the recording request comprises the certificate identification to cause the node to record only the certificate identification in a blockchain.
A conjugate of generic formula: (Ama-L-X-S) n -Ab, wherein Ama is an amatoxin, L is a linker, X is a moiety resulting from coupling of a thiol group to a thiol-reactive group, S is the sulphur atom of a cysteine amino acid residue, and Ab is an antibody sequence, or an antigen-binding fragment, comprising said cysteine residue, wherein said cysteine residue is heavy chain 265Cys according to the EU numbering system, and wherein n indicates that one or more amatoxin molecules are coupled to one antibody or antigen-binding fragment.
Method for manufacturing a chip card, comprising: - the production of a chip card module comprising a substrate having a first and a second main faces, with, on the first face of the substrate, contacts for a temporary electrical connection with a reading device with card contacts, and, on the second face of the substrate, conductive tracks, this module being also provided with an electronic chip connected to at least some contacts and to at least two conductive tracks dedicated to an antenna connection, - the production of an antenna on an antenna support for an electromagnetic coupling with a reading device without card contact, the antenna comprising two ends and a connection area respectively at each of its ends, - the lamination of the antenna support between layers of plastic material, and - the placement of the module in a cavity formed in at least some of the layers of plastic material, - a step of deposition of a solder material on each of the connection areas of the antenna and the heating, once the module is in place in the cavity, of the solder material deposited on the connection areas, in order to solder each of the conductive tracks of the module that are dedicated to an antenna connection, respectively with a connection area, characterized in that a soldering unit is used that is individualized and placed on or in the antenna support, this soldering unit comprising a flexible film on which are formed the connection areas to which the ends of the antenna are connected. - the production of a chip card module comprising a substrate having a first and a second main faces, with, on the first face of the substrate, contacts for a temporary electrical connection with a reading device with card contacts, and, on the second face of the substrate, conductive tracks, this module being also provided with an electronic chip connected to at least some contacts and to at least two conductive tracks dedicated to an antenna connection, - the production of an antenna on an antenna support for an electromagnetic coupling with a reading device without card contact, the antenna comprising two ends and a connection area respectively at each of its ends, - the lamination of the antenna support between layers of plastic material, and - the placement of the module in a cavity formed in at least some of the layers of plastic material, - a step of deposition of a solder material on each of the connection areas of the antenna and the heating, once the module is in place in the cavity, of the solder material deposited on the connection areas, in order to solder each of the conductive tracks of the module that are dedicated to an antenna connection, respectively with a connection area,
Method for detecting partial discharges in an item of electrical equipment in which electromagnetic signals are recorded in a decentralized manner at different positions of the item of equipment by means of a plurality of sensor apparatuses, wherein a sinusoidal phase profile is centrally ascertained for a voltage by means of a voltage measuring arrangement, and at least one phase point characterizing the phase profile is provided with a time stamp (t0, t1) by means of a reference arrangement, and the electromagnetic signals are each provided with a time stamp by means of a time stamp arrangement, and a partial discharge signal is determined in each of the electromagnetic signals by means of an evaluation arrangement, and the at least one time stamp (t0, t1) of the characterizing phase point and the time stamps of the partial discharge signals are taken into consideration by means of the evaluation arrangement when the sinusoidal phase profile is superposed with the partial discharge signals, wherein the voltage is centrally recorded at a voltage transformer for the item of equipment, wherein the item of equipment used is a gas-insulated electrical switchgear unit, and wherein the time stamps are determined to within a margin of accuracy of less than 100 μs. electromagnetic signals are recorded in a decentralized manner at different positions of the item of equipment by means of a plurality of sensor apparatuses, wherein a sinusoidal phase profile is centrally ascertained for a voltage by means of a voltage measuring arrangement, and at least one phase point characterizing the phase profile is provided with a time stamp (t0, t1) by means of a reference arrangement, and the electromagnetic signals are each provided with a time stamp by means of a time stamp arrangement, and a partial discharge signal is determined in each of the electromagnetic signals by means of an evaluation arrangement, and the at least one time stamp (t0, t1) of the characterizing phase point and the time stamps of the partial discharge signals are taken into consideration by means of the evaluation arrangement when the sinusoidal phase profile is superposed with the partial discharge signals, wherein the voltage is centrally recorded at a voltage transformer for the item of equipment, wherein the item of equipment used is a gas-insulated electrical switchgear unit, and wherein the time stamps are determined to within a margin of accuracy of less than 100 μs.
Method for production of a polymer composition mainly comprising the steps of - preparing polymer powder, - preparing mixture containing iron oxide, - adding the polymer powder into the mixture containing iron oxide, - removing the solvent, - obtaining aliphatic polyketone material the surface of which is coated with iron oxide, - molding the material, - heating the molded material by induction heating, - solidifying the heated material and characterized in that - using the aliphatic polyketone polymer in the step of preparing polymer powder, - using nano-sized ferromagnetic iron oxide particles in the step of preparing the mixture containing iron oxide, - using isostatic press in the step of molding the material, - employing induction heating method in the step of heating the molded material. - preparing polymer powder, - preparing mixture containing iron oxide, - adding the polymer powder into the mixture containing iron oxide, - removing the solvent, - obtaining aliphatic polyketone material the surface of which is coated with iron oxide, - molding the material, - heating the molded material by induction heating, - solidifying the heated material and characterized in that - using the aliphatic polyketone polymer in the step of preparing polymer powder, - using nano-sized ferromagnetic iron oxide particles in the step of preparing the mixture containing iron oxide, - using isostatic press in the step of molding the material, - employing induction heating method in the step of heating the molded material.