mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving three-dimensional, 3D, map-data, in which a plurality of locations within the 3D-map-data are associated with respective 3D-data-capture-locations of a 3D-camera, and in which 3D-camera-timing-information is associated with each of the plurality of locations, wherein the 3D-camera-timing-information is a timestamp, a sequence order or sequence number; receiving one or more two-dimensional, 2D, images from a 2D-camera, in which 2D-camera-timing-information is associated with each 2D-image, and in which each 2D-image is captured when a velocity or acceleration of the 3D-camera is less than a threshold level, in which the 2D-camera is co-located with the 3D-camera during capture of the 3D-map-data and of the one or more 2D-images, wherein the 2D-camera-timing-information is a timestamp, a sequence order or sequence number; identifying 3D-camera-timing-information associated with locations within the 3D-map-data that correspond to 3D-data-capture-locations with the velocity or acceleration of the 3D-camera less than the threshold level; associating, in a combined dataset, each 2D-image with a corresponding location within the 3D-map-data by a data processing unit corelating the 2D-camera-timing-information with the identified 3D-camera-timing-information. receiving three-dimensional, 3D, map-data, in which a plurality of locations within the 3D-map-data are associated with respective 3D-data-capture-locations of a 3D-camera, and in which 3D-camera-timing-information is associated with each of the plurality of locations, wherein the 3D-camera-timing-information is a timestamp, a sequence order or sequence number; receiving one or more two-dimensional, 2D, images from a 2D-camera, in which 2D-camera-timing-information is associated with each 2D-image, and in which each 2D-image is captured when a velocity or acceleration of the 3D-camera is less than a threshold level, in which the 2D-camera is co-located with the 3D-camera during capture of the 3D-map-data and of the one or more 2D-images, wherein the 2D-camera-timing-information is a timestamp, a sequence order or sequence number; identifying 3D-camera-timing-information associated with locations within the 3D-map-data that correspond to 3D-data-capture-locations with the velocity or acceleration of the 3D-camera less than the threshold level; associating, in a combined dataset, each 2D-image with a corresponding location within the 3D-map-data by a data processing unit corelating the 2D-camera-timing-information with the identified 3D-camera-timing-information.
A method for controlling the configuration of devices in a telecommunications network, characterized in that it comprises the following steps: transmitting from a server at least one request (ReqC) containing part of a security profile to at least one agent dedicated to at least one network device, executing (E3, E4) within the agent at least one test of a configuration of a network device based on said part of the security profile and producing a result (ResB) of that test, transmitting from the agent a response (Rep) containing the result (ResB) to the server, if the result (ResB) differs from a reference (Ref) included in said part of the security profile, transmitting from the server another request (ReqM) containing another part of the security profile to the agent, and modifying in the agent the configuration of the network device based on said other part of the security profile. transmitting from a server at least one request (ReqC) containing part of a security profile to at least one agent dedicated to at least one network device, executing (E3, E4) within the agent at least one test of a configuration of a network device based on said part of the security profile and producing a result (ResB) of that test, transmitting from the agent a response (Rep) containing the result (ResB) to the server, if the result (ResB) differs from a reference (Ref) included in said part of the security profile, transmitting from the server another request (ReqM) containing another part of the security profile to the agent, and modifying in the agent the configuration of the network device based on said other part of the security profile.
A dust collecting device for a vacuum cleaner comprising: - a primary cyclone unit for separating dust from air introduced therein by a cyclone principle; and - a secondary cyclone unit at a downstream of the primary cyclone unit for cleaning the air again by the cyclone principle, characterized in that the primary cyclone unit has two parallel primary cyclones (111, 112). - a primary cyclone unit for separating dust from air introduced therein by a cyclone principle; and - a secondary cyclone unit at a downstream of the primary cyclone unit for cleaning the air again by the cyclone principle,
A power plant control system for regulating a regenerative power generation aggregate having a plurality of power generation units, comprised of: -- a signal input for receiving a predetermined set-point value; -- a measuring device for measuring the actual value at a network junction point of the power generation aggregate; -- a control means for tracking the actual value with regard to the set-point value, by tracking the individual power generation units, wherein the said power plant control system has [sic] a variety of types of power generation units, and wherein said power plant control system has one or more interface units for the different types of power generation units. -- a signal input for receiving a predetermined set-point value; -- a measuring device for measuring the actual value at a network junction point of the power generation aggregate; -- a control means for tracking the actual value with regard to the set-point value, by tracking the individual power generation units,
A method comprising: with respect to a memory system having a first memory level and a second memory level, monitoring bandwidth utilization of the second memory level, the first memory level having different access time performance than the second memory level; dynamically modifying the bandwidth utilization of the second memory level based on the monitored bandwidth utilization of the second memory level; and, dynamically modifying the operational state of at least one processing core in response to the modification of the bandwidth utilization of the second memory level, wherein modifying the available bandwidth utilization of the second memory level based on the monitored bandwidth utilization of the second memory level comprises modifying a page size for the first memory level. with respect to a memory system having a first memory level and a second memory level, monitoring bandwidth utilization of the second memory level, the first memory level having different access time performance than the second memory level; dynamically modifying the bandwidth utilization of the second memory level based on the monitored bandwidth utilization of the second memory level; and, dynamically modifying the operational state of at least one processing core in response to the modification of the bandwidth utilization of the second memory level, wherein modifying the available bandwidth utilization of the second memory level based on the monitored bandwidth utilization of the second memory level comprises modifying a page size for the first memory level.
An isolated nucleic acid molecule encoding a surrogate light chain polypeptide, wherein the native secretory leader sequence of the polypeptide is replaced by a heterologous secretory leader sequence of an antibody light chain.
A method of mounting a bumper to the body structure of a motor vehicle using a locating member, the locating member comprising a first lamp engagement portion for engaging a first lamp and a second lamp engagement portion for engaging a second lamp, bumper alignment means and at least one fixing portion, the at least one fixing portion being movably coupled to the first or second lamp engagement portion; wherein the method comprises: mounting the at least one fixing portion to the body structure, positioning a first lamp and a second lamp relative to the body structure, positioning the locating member such that the first and second lamp engagement portions engage said first and second lamps respectively and then fixedly mounting the locating member to the body structure, positioning the bumper in an aligned position in relation to the first and second lamps by means of the bumper alignment means, and fixedly mounting the bumper in said aligned position. mounting the at least one fixing portion to the body structure, positioning a first lamp and a second lamp relative to the body structure, positioning the locating member such that the first and second lamp engagement portions engage said first and second lamps respectively and then fixedly mounting the locating member to the body structure, positioning the bumper in an aligned position in relation to the first and second lamps by means of the bumper alignment means, and fixedly mounting the bumper in said aligned position.
A method for preparing hollow silicon-based particle, comprising the steps of: i) preparing a polymer template; ii) coating a surface of the polymer template with SiO 2 using a silicon-based precursor; iii) obtaining hollow SiO 2 particle by removing the polymer template; and iv) obtaining hollow silicon (Si) or silicon oxide (SiO x, 0<x<2) particle by reducing the hollow SiO 2 particle and acid treating the reduced product, wherein the reducing step is performed by mixing the hollow SiO 2 particle with an alkaline metal or an alkaline earth metal, and heat treating under an inert atmosphere. i) preparing a polymer template; ii) coating a surface of the polymer template with SiO 2 using a silicon-based precursor; iii) obtaining hollow SiO 2 particle by removing the polymer template; and iv) obtaining hollow silicon (Si) or silicon oxide (SiO x, 0<x<2) particle by reducing the hollow SiO 2 particle and acid treating the reduced product,
A method for generating a time scheduling of a contents stream distributed to a plurality of terminals, the contents stream being segmented in consecutive segments, each segment defining a corresponding program (Pi), the method including: - receiving auxiliary metadata comprising a planned time scheduling of the content stream which has been set in advance; - partitioning each segment over time into a corresponding plurality of portions (S(Pi), C(Pi)); - monitoring a selected subset of portions among the plurality of portions to extract corresponding content features therefrom; - generating a corresponding fingerprint based on content features extracted from the selected subset of portions; - assessing at least one among an actual start time and an actual end time of such segment based on a comparison between said fingerprint and a reference fingerprint associated with such segment, and - updating the planned time scheduling based on the assessed at least one among the actual start time and the actual end time so as to generate a time scheduling synchronized with the contents stream. - receiving auxiliary metadata comprising a planned time scheduling of the content stream which has been set in advance; - partitioning each segment over time into a corresponding plurality of portions (S(Pi), C(Pi)); - monitoring a selected subset of portions among the plurality of portions to extract corresponding content features therefrom; - generating a corresponding fingerprint based on content features extracted from the selected subset of portions; - assessing at least one among an actual start time and an actual end time of such segment based on a comparison between said fingerprint and a reference fingerprint associated with such segment, and - updating the planned time scheduling based on the assessed at least one among the actual start time and the actual end time so as to generate a time scheduling synchronized with the contents stream.
A method for additively manufacturing a component, comprising: receiving a data model of a structure comprising the component supported by a conductive support material coupled to at least one inductive element; additively manufacturing the structure based on the data model; placing the structure in a first magnetic field; and energizing the at least one inductive element to generate a second magnetic field having a direction opposite the first magnetic field and configured to break the support material from the component. receiving a data model of a structure comprising the component supported by a conductive support material coupled to at least one inductive element; additively manufacturing the structure based on the data model; placing the structure in a first magnetic field; and energizing the at least one inductive element to generate a second magnetic field having a direction opposite the first magnetic field and configured to break the support material from the component.
A method, comprising: receiving, at a flight computer, a signal indicative of a forward velocity associated with an aircraft, wherein the aircraft includes a multicopter with a plurality of rotors which rotate in a substantially horizontal plane; determining, by the flight computer, a pitch offset based at least in part on the forward velocity, wherein the pitch offset changes monotonically with the forward velocity; determining, by the flight computer, a desired pitch based at least in part on the pitch offset and a pitch angle specified via a hand control; determining, by the flight computer, a plurality of control signals for the plurality of rotors based at least in part on the desired pitch; and communicating, from the flight computer to a plurality of rotor controllers operative to control the plurality of rotors, the determined control signals in order to adjust a pitch to the desired pitch. receiving, at a flight computer, a signal indicative of a forward velocity associated with an aircraft, wherein the aircraft includes a multicopter with a plurality of rotors which rotate in a substantially horizontal plane; determining, by the flight computer, a pitch offset based at least in part on the forward velocity, wherein the pitch offset changes monotonically with the forward velocity; determining, by the flight computer, a desired pitch based at least in part on the pitch offset and a pitch angle specified via a hand control; determining, by the flight computer, a plurality of control signals for the plurality of rotors based at least in part on the desired pitch; and communicating, from the flight computer to a plurality of rotor controllers operative to control the plurality of rotors, the determined control signals in order to adjust a pitch to the desired pitch.
A non-transitory computer-readable medium (300, 400, 500, 600, 800) storing machine-readable instructions that are, when executed by a processor, to cause the processor to: establish (242, 310, 410, 510, 610, 810) a first data channel between the processor and a virtual computer based on a connection between the processor and the virtual computer, the connection comprising a second data channel between the processor and the virtual computer, the second data channel to transfer input/output (I/O) data between the processor and the virtual computer; receive (244, 320, 420, 620) an output message from the virtual computer via the first data channel; identify (330, 430, 630) an I/O device (120, 250) coupled to the processor based on the output message; and provide (246, 340, 440, 530, 640) an output signal to the I/O device (120, 250), the output signal based on the output message; wherein the output signal to the I/O device (120, 250) is to cause the I/O device to activate a light source; and wherein the I/O device (120, 250) comprises a keyboard. establish (242, 310, 410, 510, 610, 810) a first data channel between the processor and a virtual computer based on a connection between the processor and the virtual computer, the connection comprising a second data channel between the processor and the virtual computer, the second data channel to transfer input/output (I/O) data between the processor and the virtual computer; receive (244, 320, 420, 620) an output message from the virtual computer via the first data channel; identify (330, 430, 630) an I/O device (120, 250) coupled to the processor based on the output message; and provide (246, 340, 440, 530, 640) an output signal to the I/O device (120, 250), the output signal based on the output message;
A composition comprising long acting, interleukin-2 receptorβ (IL-2Rβ)-selective agonist compounds for use in a method of treating cancer in a patient, wherein the method comprises the steps of: (a) administering a composition comprising long acting, IL-2Rβ-selective agonist compounds encompassed by the formula: wherein IL-2 is a residue of interleukin-2 and (n) ranges from about 3 to 4000; and pharmaceutically acceptable salts thereof; and (b) administering an anti-CTLA-4 antibody or an anti-PD-1 antibody wherein when the antibody is an anti-CTLA-4 antibody, step (a) is carried out after step (b). (a) administering a composition comprising long acting, IL-2Rβ-selective agonist compounds encompassed by the formula: wherein IL-2 is a residue of interleukin-2 and (n) ranges from about 3 to 4000; and pharmaceutically acceptable salts thereof; and (b) administering an anti-CTLA-4 antibody or an anti-PD-1 antibody wherein when the antibody is an anti-CTLA-4 antibody, step (a) is carried out after step (b).
A drainage system section comprising: two drain cover portions (100a, 100b) each having at least two connector attachment means and one or more drain attachment means, each connector attachment means being arranged so as to allow the tool-less attachment of an anchor connector or a cover portion connector, and each drain attachment means being arranged to allow the tool-less attachment of a drain portion, a drain portion, an anchor, an anchor connector connected to a first of the connector attachment means of a first of the drain cover portions (100a, 100b) and to the anchor, to connect the anchor to the first drain cover portion (100a, 100b), a cover portion connector connected to a second of the connector attachment means of the first drain cover portion (100a, 100b) and to a connector attachment means of a second of the drain cover portions (100a, 100b) to connect the first and second drain cover portions (100a, 100b) together, wherein the drain attachment means connect the respective one of the drain cover portions (100a, 100b) to the drain portion. two drain cover portions (100a, 100b) each having at least two connector attachment means and one or more drain attachment means, each connector attachment means being arranged so as to allow the tool-less attachment of an anchor connector or a cover portion connector, and each drain attachment means being arranged to allow the tool-less attachment of a drain portion, a drain portion, an anchor, an anchor connector connected to a first of the connector attachment means of a first of the drain cover portions (100a, 100b) and to the anchor, to connect the anchor to the first drain cover portion (100a, 100b), a cover portion connector connected to a second of the connector attachment means of the first drain cover portion (100a, 100b) and to a connector attachment means of a second of the drain cover portions (100a, 100b) to connect the first and second drain cover portions (100a, 100b) together, wherein the drain attachment means connect the respective one of the drain cover portions (100a, 100b) to the drain portion.
A composition comprising: A) 50-99.9% by weight of at least a copolymer of ethylene with chlorotrifluoroethylene (CTFE) wherein CTFE is between 53 and 70 % by moles, optionally containing from 0.1 to 10% by moles of a third monomer, said polymer having a crystallinity in the range 5-45%; B) 0.1-50% by weight of a fine powder of a nucleating agent, having an average particle size lower than 50 micron, preferably lower than 20 micron, and a melting temperature higher than 300°C, said composition not comprising foaming agents. A) 50-99.9% by weight of at least a copolymer of ethylene with chlorotrifluoroethylene (CTFE) wherein CTFE is between 53 and 70 % by moles, optionally containing from 0.1 to 10% by moles of a third monomer, said polymer having a crystallinity in the range 5-45%; B) 0.1-50% by weight of a fine powder of a nucleating agent, having an average particle size lower than 50 micron, preferably lower than 20 micron, and a melting temperature higher than 300°C, said composition not comprising foaming agents.
A transmitter for a mobile communication device, comprising: a processor for generating a baseband signal and a control signal; a transmit signal path comprising a modulator for up-converting the baseband signal to an RF signal, and a transmit output stage for pre-amplifying the RF signal; a power amplifier for amplifying the pre-amplified RF signal; an antenna for transmitting the amplified RF signal; an envelope tracking signal path comprising a function block for converting the envelope of the baseband signal into a shaped envelope signal, wherein said function block includes a lookup table containing pre-calculated envelope shape values; an automatic power control loop for receiving the control signal from the processor, receiving a feedback signal tapped from an output of the power amplifier, and in response generating a corrective signal for controlling the gain of the pre-amplified RF signal at the transmit output stage and the shape of the envelope signal from the envelope tracking signal path, and an envelope tracking modulator for receiving the shaped envelope signal and synchronizing power applied to the power amplifier therewith; wherein said function block is configured to execute a calibration routine that uses the corrective signal from the automatic power control loop to address the lookup table containing the envelope shape values. a processor for generating a baseband signal and a control signal; a transmit signal path comprising a modulator for up-converting the baseband signal to an RF signal, and a transmit output stage for pre-amplifying the RF signal; a power amplifier for amplifying the pre-amplified RF signal; an antenna for transmitting the amplified RF signal; an envelope tracking signal path comprising a function block for converting the envelope of the baseband signal into a shaped envelope signal, wherein said function block includes a lookup table containing pre-calculated envelope shape values; an automatic power control loop for receiving the control signal from the processor, receiving a feedback signal tapped from an output of the power receiving the control signal from the processor, receiving a feedback signal tapped from an output of the power amplifier, and in response generating a corrective signal for controlling the gain of the pre-amplified RF signal at the transmit output stage and the shape of the envelope signal from the envelope tracking signal path, and an envelope tracking modulator for receiving the shaped envelope signal and synchronizing power applied to the power amplifier therewith; wherein said function block is configured to execute a calibration routine that uses the corrective signal from the automatic power control loop to address the lookup table containing the envelope shape values.