mhurhangee/ep-ind-claims huggingface dataset:
A system for launching multiple satellites from a launch vehicle comprising: the launch vehicle; a mechanical structure which comprises three sets of mounting means (104A-F), said mounting means adapted to position a plurality of satellites; wherein a first set of mounting means is arranged for axial separation from the launch vehicle of part of the plurality of satellites, a second set of mounting means is arranged for inclined separation from the launch vehicle of part of the plurality of satellites, and a third set of mounting means is arranged for radial separation from the launch vehicle of part of the plurality of satellites; wherein the first set of mounting means is arranged in the axial separation direction, the second set of mounting means is arranged in the inclined separation direction and the third set of mounting means is arranged in the radial separation direction; $ a control unit for controlling said mounting means for positioning and separating said multiple satellites in said mechanical structure; an image capturing system for monitoring the positioning of each satellite in said mechanical structure; and wherein said mounting means are adapted to position the satellites at a distance to ensure that each satellite will not come in contact with each other in short duration as well as long duration of orbit evolution. the launch vehicle; a mechanical structure which comprises three sets of mounting means (104A-F), said mounting means adapted to position a plurality of satellites; wherein a first set of mounting means is arranged for axial separation from the launch vehicle of part of the plurality of satellites, a second set of mounting means is arranged for inclined separation from the launch vehicle of part of the plurality of satellites, and a third set of mounting means is arranged for radial separation from the launch vehicle of part of the plurality of satellites; wherein the first set of mounting means is arranged in the axial separation direction, the second set of mounting means is arranged in the inclined separation direction and the third set of mounting means is arranged in the radial separation direction; $ a control unit for controlling said mounting means for positioning and separating said multiple satellites in said mechanical structure; an image capturing system for monitoring the positioning of each satellite in said mechanical structure; and wherein said mounting means are adapted to position the satellites at a distance to ensure that each satellite will not come in contact with each other in short duration as well as long duration of orbit evolution.
Method for displacing a fluid (1, 11, 21) from a supply container (2, 12, 22) to a buffer tank (3, 13, 23), comprising the steps of: A) identifying the fluid (1, 11, 21) present in the supply container (2, 12, 22); B) coupling the supply container (2, 12, 22) to the buffer tank (3, 13, 23) via at least one coupling component (4, 14, 24); C) identifying the at least one coupling component (4, 14, 24); D) retrieving historical information relating to the at least one identified coupling component (4, 14, 24) from a database (7, 17, 27); E) verifying, on the basis of the information collected during step A), step C) and step D), whether the identified fluid (1, 11, 21) may flow through the at least one identified coupling component (4, 14, 24) on the basis of at least one predetermined criterion, which verification takes place by means of a verification device (9, 19, 29); and F) displacing fluid (1, 11, 21) from the supply container (2, 12, 22) via the at least one coupling component (4, 14, 24) to the buffer tank (3, 13, 23) if the verification as according to step E) is successful; characterized in that the at least one coupling component (4, 14, 24) is of shared nature wherein said coupling component being configured to be coupled directly or indirectly to a plurality of buffer tanks and a plurality of supply containers and in that the historical information comprises at least information relating to a fluid (1, 11, 21) last guided through the at least one identified coupling component (4, 14, 24). A) identifying the fluid (1, 11, 21) present in the supply container (2, 12, 22); B) coupling the supply container (2, 12, 22) to the buffer tank (3, 13, 23) via at least one coupling component (4, 14, 24); C) identifying the at least one coupling component (4, 14, 24); D) retrieving historical information relating to the at least one identified coupling component (4, 14, 24) from a database (7, 17, 27); E) verifying, on the basis of the information collected during step A), step C) and step D), whether the identified fluid (1, 11, 21) may flow through the at least one identified coupling component (4, 14, 24) on the basis of at least one predetermined criterion, which verification takes place by means of a verification device (9, 19, 29); and F) displacing fluid (1, 11, 21) from the supply container (2, 12, 22) via the at least one coupling component (4, 14, 24) to the buffer tank (3, 13, 23) if the verification as according to step E) is successful;
A method of reserving X slots for transmitting data from a source device to a destination device via multi-hop relay in a communication network comprising a plurality of devices communicating using a reservation-based data transfer protocol having a superframe comprising a plurality of slots, the method comprising: sending a first hop reservation request from the source device, addressed to a second device different from the destination device, for transmitting data from the source device to the destination device, the first hop reservation request identifying the source device, the destination device, and X proposed slots to be reserved for a first hop between the source device and the second device; at the source device receiving a first message, addressed to the source device from the second device, indicating that the first hop reservation request is pending and that the X slots proposed by the source device have been reserved by the second device; and at the source device receiving a subsequent message, addressed to the source device from the second device, indicating that a final hop reservation request has been accepted by the destination device, corresponding to the first hop reservation request of the source device. sending a first hop reservation request from the source device, addressed to a second device different from the destination device, for transmitting data from the source device to the destination device, the first hop reservation request identifying the source device, the destination device, and X proposed slots to be reserved for a first hop between the source device and the second device; at the source device receiving a first message, addressed to the source device from the second device, indicating that the first hop reservation request is pending and that the X slots proposed by the source device have been reserved by the second device; and at the source device receiving a subsequent message, addressed to the source device from the second device, indicating that a final hop reservation request has been accepted by the destination device, corresponding to the first hop reservation request of the source device.
Method for applying an advance degradation (DegAV) to the curative ignition of a first predetermined nominal value (Deg n) for a heat engine after detection of a first knock (Cl1, Cl2, C15) during operation of the engine, the application of advance degradation (DegAV) to curative ignition being suspended until a second knock has been detected in a first time interval (T1s) predetermined starting with the detection of the first clicking sound (Cl1, C12, C15), comprising a step of initiating a first countdown of a first time interval (T1s) starting with the appearance of the first click (Cl1, C12, C15), the first countdown being reset to zero if no second click has been detected during the first time interval (T1s) or as soon as a second click has been detected, after the first countdown has been reset to zero, the next upcoming knock will become the new first knock (C12, C15), characterized in that, simultaneously with the start of the first countdown, a second countdown of a second time interval (T2s) less than the first interval (T1s) is started, this second countdown serving to limit in duration an advance degradation (DegAV) to the curative ignition of a second predetermined reduced value (Deg min) lower than the first predetermined nominal value (Deg n) implemented as soon as a third knock has been detected during the first time interval (T1s) in force and not completed.
A method for wireless communications, comprising: receiving, at an apparatus, one or more spatial feedback information messages, wherein each spatial feedback information message comprises information about a channel between the apparatus and one neighboring user terminal from a set of neighboring user terminals; adjusting, by the apparatus, a beam direction for a data transmission based at least in part on one or more of the spatial feedback information messages; the method characterized by transmitting a reference signal comprising an indication about the adjusted beam direction for the data transmission; transmitting, to a set of user terminals, a request to send at least one indication message about a quality of one or more communication resources associated with the user terminals; receiving, from said one or more user terminals from the set, one or more of the indication messages generated at least in part based on the reference signal; and scheduling, based on the received indication messages, transmission of data to at least one of the user terminals from the set, wherein the data are to be transmitted using the adjusted beam direction. receiving, at an apparatus, one or more spatial feedback information messages, wherein each spatial feedback information message comprises information about a channel between the apparatus and one neighboring user terminal from a set of neighboring user terminals; adjusting, by the apparatus, a beam direction for a data transmission based at least in part on one or more of the spatial feedback information messages; the method characterized by transmitting a reference signal comprising an indication about the adjusted beam direction for the data transmission; transmitting, to a set of user terminals, a request to send at least one indication message about a quality of one or more communication resources associated with the user terminals; receiving, from said one or more user terminals from the set, one or more of the indication messages generated at least in part based on the reference signal; and scheduling, based on the received indication messages, transmission of data to at least one of the user terminals from the set, wherein the data are to be transmitted using the adjusted beam direction.
A method for reducing noise in a seismic vibratory source, comprising: generating an initial pilot signal P k (t) for the seismic vibratory source; receiving a source signature S k (t) corresponding to the initial pilot signal P k (t); the method characterized by estimating a noise component N k (t) of the source signature S k (t) based on the source signature S k (t) and a target force F target (t); calculating a noise operator Ω k+1 (t) by deconvolving the noise component N k (t) by the target force F target (t); generating an anti-noise correction P k + 1 corr t for the initial pilot signal P k (t) by convolving the noise operator Ω k+1 (t) with the initial pilot signal P k (t); and computing a modified pilot signal P k+1 (t) based on the initial pilot signal P k (t) and the anti-noise correction P k + 1 corr t, wherein k is a subscript indicating a k th iteration. generating an initial pilot signal P k (t) for the seismic vibratory source; receiving a source signature S k (t) corresponding to the initial pilot signal P k (t); the method characterized by estimating a noise component N k (t) of the source signature S k (t) based on the source signature S k (t) and a target force F target (t); calculating a noise operator Ω k+1 (t) by deconvolving the noise component N k (t) by the target force F target (t); generating an anti-noise correction P k + 1 corr t for the initial pilot signal P k (t) by convolving the noise operator Ω k+1 (t) with the initial pilot signal P k (t); and computing a modified pilot signal P k+1 (t) based on the initial pilot signal P k (t) and the anti-noise correction P k + 1 corr t, wherein k is a subscript indicating a k th iteration.
A method for damping mast oscillations on a reach truck, the reach truck including at least one traction wheel, a telescoping mast, a fork assembly moveably attached to the telescoping mast by a reach actuator, characterized in comprising one or more sensors arranged adjacent to a top of the telescoping mast and configured to measure oscillations adjacent to the top of the telescoping mast, the method comprising: determining if the reach truck is being commanded to travel; upon determining that the reach truck is not being commanded to travel, acquiring data from the one or more sensors arranged adjacent to the top of the mast; determining if the data acquired by the one or more sensors indicates an undesired mast oscillation occurring at the top of the telescoping mast; and upon determining that the undesired mast oscillation is occurring at the top of the mast, actuating the reach actuator in a desired direction thereby damping the undesired mast oscillation. determining if the reach truck is being commanded to travel; upon determining that the reach truck is not being commanded to travel, acquiring data from the one or more sensors arranged adjacent to the top of the mast; determining if the data acquired by the one or more sensors indicates an undesired mast oscillation occurring at the top of the telescoping mast; and upon determining that the undesired mast oscillation is occurring at the top of the mast, actuating the reach actuator in a desired direction thereby damping the undesired mast oscillation.
A device for connecting at least one nano-object to an external electrical system, the device including: - a support; - at least one first chip (30 1) provided with several conducting areas (8a, 8b) and at least one first nano-object connected to said conducting areas, the first nano-object being connected to a first conducting area and to a second conducting area among said conducting areas (8a, 8b), the first conducting area and the second conducting area being separate and extending in a same plane parallel to the main plane of the support, the first chip being assembled on a support such that the first nano-object is arranged facing an upper face (F 1) of the support, a lower face (F 2) of the support forming a rear face of the device, said lower face being opposite to said upper face of the support, the device further comprising a front face, opposite to said rear face, the front face being provided with several connection elements (80a, 80b) provided for connection to the external electrical system and arranged respectively on and in contact respectively with said first conducting area and said second conducting area of the first chip, the connection elements (80a, 80b) being accessible from the side of the front face of the device. - a support; - at least one first chip (30 1) provided with several conducting areas (8a, 8b) and at least one first nano-object connected to said conducting areas, the first nano-object being connected to a first conducting area and to a second conducting area among said conducting areas (8a, 8b), the first conducting area and the second conducting area being separate and extending in a same plane parallel to the main plane of the support,
A method of preparing a nonaqueous lithium power storage element, comprising: providing a nonaqueous lithium power storage element comprising a positive electrode precursor containing a lithium compound other than an active material, a negative electrode, a separator, a nonaqueous electrolytic solution containing lithium ions, and a casing; and applying a voltage to the nonaqueous lithium power storage element, to decompose the lithium compound in the positive electrode precursor and pre-dope the negative electrode with the lithium ions, while releasing a gas generated from decomposition of the lithium compound either (i) out of the casing, with a portion of the casing in an open state, or (ii) through a degassing valve or gas permeable film, with the casing being equipped with the degassing valve or gas permeable film. providing a nonaqueous lithium power storage element comprising a positive electrode precursor containing a lithium compound other than an active material, a negative electrode, a separator, a nonaqueous electrolytic solution containing lithium ions, and a casing; and applying a voltage to the nonaqueous lithium power storage element, to decompose the lithium compound in the positive electrode precursor and pre-dope the negative electrode with the lithium ions, while releasing a gas generated from decomposition of the lithium compound either (i) out of the casing, with a portion of the casing in an open state, or (ii) through a degassing valve or gas permeable film, with the casing being equipped with the degassing valve or gas permeable film.
A system for treating at least one sensory capacity of a person comprising a stimulation device comprising an electronic converter of a sensory signal into electronic signals for controlling at least one transducer for emitting signals that are images of the sensory signal, the stimulation device being a device for direct ultrasound stimulation of the sensory cortex of the patient's brain, the ultrasound stimulation device comprising: • at least one support (2, 2 1) that is implantable in the patient's skull and that includes at least one internal wall ( characterized in that the ultrasound stimulation device comprises • at least one ultrasound transducer carried by the support and including means for emitting focused ultrasound waves through the internal wall of the support without passing through the skull towards a determined zone of the sensory cortex of the patient's brain in order to generate modulation of the brain activity in the cortex, the ultrasound transducer being driven by the electronic converter to emit focused ultrasound signals that are images of the sensory signal. • at least one support (2, 2 1) that is implantable in the patient's skull and that includes at least one internal wall ( characterized in that the ultrasound stimulation device comprises • at least one ultrasound transducer carried by the support and including means for emitting focused ultrasound waves through the internal wall of the support without passing through the skull towards a determined zone of the sensory cortex of the patient's brain in order to generate modulation of the brain activity in the cortex, the ultrasound transducer being driven by the electronic converter to emit focused ultrasound signals that are images of the sensory signal.
A mobile terminal that performs contactless communication with a reader/writer device suitable for reading and/or writing from/to a passive RFID tag, comprising: an application processing unit configured to cooperate with an application server (20/50) through communication; a position information acquisition unit configured to acquire current position information of the mobile terminal; an RFID tag processing unit configured to output a trigger in response to an electromotive force obtained from a carrier wave emitted from the reader/writer device or in response to a polling command or a select aid command emitted from the reader/writer device; and a terminal controller configured to cause the application processing unit to operate in response to the trigger, wherein the application processing unit is configured to acquire, from the mobile terminal, either personal information including identification information of a user of the mobile terminal or identification information of the mobile terminal and information either of a date and time when the application processing unit operates or of a date and time when the reader/writer device and the RFID tag processing unit perform communication, and to transmit either the personal information or identification information and the information of a date and time to the application server (20/50) together with either the current position information acquired by the position information acquisition unit or information of a checkpoint related to the reader/writer device identified on the basis of the current position information. an application processing unit configured to cooperate with an application server (20/50) through communication; a position information acquisition unit configured to acquire current position information of the mobile terminal; an RFID tag processing unit configured to output a trigger in response to an electromotive force obtained from a carrier wave emitted from the reader/writer device or in response to a polling command or a select aid command emitted from the reader/writer device; and a terminal controller configured to cause the application processing unit to operate in response to the trigger, wherein the application processing unit is configured to acquire, from the mobile terminal, either personal information including identification information of a user of the mobile terminal or identification information of the mobile terminal and information either of a date and time when the application processing unit operates or of a date and time when the reader/writer device and the RFID tag processing unit perform communication, and to transmit either the personal information or identification information and the information of a date and time to the application server (20/50) together with either the current position information acquired by the position information acquisition unit or information of a checkpoint related to the reader/writer device identified on the basis of the current position information.
A polyimide film comprising an imide monomolecular compound as an organic filler and having a thermal conductivity (k) of 0.2 W/m·K or more of as defined by Equation 1: Thermal conductivity k = C × ρ × α wherein, C, p and α represent a specific heat (J/g·K), a density (g/cm 3) and a thermal diffusivity (mm 2 /sec) of the polyimide film, respectively, C, ρ and α being measured according to the methods in the description, and wherein the polyimide film is prepared by using 3,3',4,4'-biphenylcarboxylic dianhydride (s-BPDA) and 4,4'-paraphenylenediamine (pPDA) as a polymerization component. wherein, C, p and α represent a specific heat (J/g·K), a density (g/cm 3) and a thermal diffusivity (mm 2 /sec) of the polyimide film, respectively, C, ρ and α being measured according to the methods in the description, and wherein the polyimide film is prepared by using 3,3',4,4'-biphenylcarboxylic dianhydride (s-BPDA) and 4,4'-paraphenylenediamine (pPDA) as a polymerization component.