mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: operating a first device in a multi-connectivity mode using a plurality of radios of the first device; receiving, at the first device, a pre-scheduling message for a downlink transmission from a second device, wherein the pre-scheduling message identifies a transmission type of the downlink transmission; selecting a subset of radios based at least in part on the transmission type of the downlink transmission; transmitting, from the first device, a scheduling message to the second device in response to receiving the pre-scheduling message, the scheduling message comprising at least one parameter for transmitting the downlink transmission, wherein the parameter identifies the subset of radios of the plurality of radios; and receiving, at the first device, the downlink transmission in accordance with the at least one parameter for transmitting the downlink transmission. operating a first device in a multi-connectivity mode using a plurality of radios of the first device; receiving, at the first device, a pre-scheduling message for a downlink transmission from a second device, wherein the pre-scheduling message identifies a transmission type of the downlink transmission; selecting a subset of radios based at least in part on the transmission type of the downlink transmission; transmitting, from the first device, a scheduling message to the second device in response to receiving the pre-scheduling message, the scheduling message comprising at least one parameter for transmitting the downlink transmission, wherein the parameter identifies the subset of radios of the plurality of radios; and receiving, at the first device, the downlink transmission in accordance with the at least one parameter for transmitting the downlink transmission.
A device (101, 102, 103) for handling multipath of a G.N.S.S. signal, said device being configured to: - receive a G.N.S.S. signal; - determine a spatial position, a clock time and measured multipath parameters comprising a relative delay and a relative amplitude; - communicate to a remote server said G.N.S:S signal, spatial position, clock time and measured multipath parameters; - receive processed multipath parameters as determined by the remote server; and - correct one or more pseudo-distances with the received processed multipath parameters to calculate the spatial position. - receive a G.N.S.S. signal; - determine a spatial position, a clock time and measured multipath parameters comprising a relative delay and a relative amplitude; - communicate to a remote server said G.N.S:S signal, spatial position, clock time and measured multipath parameters; - receive processed multipath parameters as determined by the remote server; and - correct one or more pseudo-distances with the received processed multipath parameters to calculate the spatial position.
Comb bar for a suction nozzle of a workstation of a textile machine producing cross-wound bobbins, wherein the suction nozzle has a suction opening for pneumatically picking up a thread end, which has run onto the surface of a cross-wound bobbin after a thread break or a controlled thread cut and the comb bar to be arranged in the region of the suction opening is equipped with a fold and with a row of teeth for fixing the sucked up thread end, characterised in that the comb bar, in the region of its fold, has a least one structured face, which is produced by a photochemical etching method.
Plant for producing methane, characterised in that it comprises: - an electric energy source; - a water electrolyser supplied with electrical energy from the electric energy source, suitable for producing hydrogen in gas form; - an atmospheric carbon dioxide capture device suitable for producing carbon dioxide and water; - a methanation reactor fitted with an inlet for hydrogen from the electrolyser, fitted with an inlet for water and carbon dioxide from the atmospheric carbon dioxide capture device, and suitable for producing methane; and - solar collectors and a means for heat transfer from the solar collectors to the carbon dioxide capture device. - an electric energy source; - a water electrolyser supplied with electrical energy from the electric energy source, suitable for producing hydrogen in gas form; - an atmospheric carbon dioxide capture device suitable for producing carbon dioxide and water; - a methanation reactor fitted with an inlet for hydrogen from the electrolyser, fitted with an inlet for water and carbon dioxide from the atmospheric carbon dioxide capture device, and suitable for producing methane; and - solar collectors and a means for heat transfer from the solar collectors to the carbon dioxide capture device.
A rodent whose genome comprises (a) the human IgH VDJ region upstream of the rodent heavy chain constant region; and (b) a human kappa light chain VJ insert comprising only the proximal clusters of human V segments and J segments upstream of the host rodent kappa constant region, wherein the rodent is able to produce a repertoire of chimaeric antibodies, having a rodent constant region and a human variable region. (a) the human IgH VDJ region upstream of the rodent heavy chain constant region; and (b) a human kappa light chain VJ insert comprising only the proximal clusters of human V segments and J segments upstream of the host rodent kappa constant region,
An antibody which specifically blocks the integrin interacting motif in human microfibrillar-associated protein 4 (MFAP4) and, said antibody having a light chain variable region comprising the amino acid sequence of SEQ ID NO 1, and a heavy chain variable region comprising the amino acid sequence of SEQ ID NO 3 for use as a medicament.
A method for generating a flow table entry forwarding rule, wherein the method is applied to a storage system, the storage system comprises a controller, a switch, and a storage device communicating with the switch, the controller communicates with the switch, and the controller is configured to formulate and deliver a flow table of the switch; and characterized by: obtaining, by the controller, remaining storage space information of the storage device communicating with the switch; and generating, by the controller according to the remaining storage space information of the storage device, a forwarding rule matching a write request, wherein the write request is used to write data into the storage device communicating with the switch. obtaining, by the controller, remaining storage space information of the storage device communicating with the switch; and generating, by the controller according to the remaining storage space information of the storage device, a forwarding rule matching a write request, wherein the write request is used to write data into the storage device communicating with the switch.
An ultrasonic surgical instrument, comprising: a housing; an ultrasonic transducer assembly rotatably supported within said housing and coupled to a cutting member; a motor rotor directly coupled to said ultrasonic transducer assembly for rotation therewith; a motor stator non-movably supported within said housing adjacent said motor rotor such that upon application of a motor drive signal to said motor rotor, said motor rotor and said ultrasonic transducer assembly are caused to rotate within said housing; and characterized by a slip ring assembly arranged to transmit said motor drive signal from a control system to said motor rotor, said slip ring assembly further arranged to transmit ultrasonic electrical signals from an ultrasound signal generator to said ultrasonic transducer assembly. a housing; an ultrasonic transducer assembly rotatably supported within said housing and coupled to a cutting member; a motor rotor directly coupled to said ultrasonic transducer assembly for rotation therewith; a motor stator non-movably supported within said housing adjacent said motor rotor such that upon application of a motor drive signal to said motor rotor, said motor rotor and said ultrasonic transducer assembly are caused to rotate within said housing; and characterized by a slip ring assembly arranged to transmit said motor drive signal from a control system to said motor rotor, said slip ring assembly further arranged to transmit ultrasonic electrical signals from an ultrasound signal generator to said ultrasonic transducer assembly.
A method for controlling a plurality of user spaces in an electronic device, the method comprising: setting a plurality of user spaces by a mobile device management agent running in the electronic device, wherein each of the plurality of user spaces is a user space corresponding to a respective user different from an owner of the electronic device and is configured independently; in response to receiving a request from an external electronic device, receiving, by the mobile device management agent, a policy from a server; identifying, by the mobile device management agent, a context based on the received policy; identifying, by the mobile device management agent, a first user space among the plurality of user spaces based at least in part on the identified context using a proxy administrator framework running in the electronic device; and applying, by the mobile device management agent, the policy to the identified first user space, wherein the mobile device management agent is configured to initialize or activate a proxy mobile device management agent included in each of the plurality of user spaces, and wherein the proxy mobile device management agent is generated by the mobile device management agent when a new user space is set. setting a plurality of user spaces by a mobile device management agent running in the electronic device, wherein each of the plurality of user spaces is a user space corresponding to a respective user different from an owner of the electronic device and is configured independently; in response to receiving a request from an external electronic device, receiving, by the mobile device management agent, a policy from a server; identifying, by the mobile device management agent, a context based on the received policy; identifying, by the mobile device management agent, a first user space among the plurality of user spaces based at least in part on the identified context using a proxy administrator framework running in the electronic device; and applying, by the mobile device management agent, the policy to the identified first user space, wherein the mobile device management agent is configured to initialize or activate a proxy mobile device management agent included in each of the plurality of user spaces, and wherein the proxy mobile device management agent is generated by the mobile device management agent when a new user space is set.
A method, comprising: generating, at a first autonomous vehicle, a first planned path based, at least in part, on a current position of the first autonomous vehicle and a mission requirement assigned to the first autonomous vehicle; receiving, at the first autonomous vehicle, from a second autonomous vehicle, a first planned path associated with the second autonomous vehicle, the first planned path associated with the second autonomous vehicle being based, at least in part, on a current position of the second autonomous vehicle and a mission requirement assigned to the second autonomous vehicle; after the receiving, generating, at the first autonomous vehicle, a second planned path based, at least in part, on the first planned path associated with the second autonomous vehicle and at least one of the mission requirement assigned to the first autonomous vehicle or the first planned path of the first autonomous vehicle; transmitting the second planned path of the first autonomous vehicle from the first autonomous vehicle to the second autonomous vehicle; and receiving, at the first autonomous vehicle, from the second autonomous vehicle, a second planned path associated with the second autonomous vehicle, the second planned path for the second autonomous vehicle differing from the first planned path for the second autonomous vehicle. generating, at a first autonomous vehicle, a first planned path based, at least in part, on a current position of the first autonomous vehicle and a mission requirement assigned to the first autonomous vehicle; receiving, at the first autonomous vehicle, from a second autonomous vehicle, a first planned path associated with the second autonomous vehicle, the first planned path associated with the second autonomous vehicle being based, at least in part, on a current position of the second autonomous vehicle and a mission requirement assigned to the second autonomous vehicle; after the receiving, generating, at the first autonomous vehicle, a second planned path based, at least in part, on the first planned path associated with the second autonomous vehicle and at least one of the mission requirement assigned to the first autonomous vehicle or the first planned path of the first autonomous vehicle; transmitting the second planned path of the first autonomous vehicle from the first autonomous vehicle to the second autonomous vehicle; and receiving, at the first autonomous vehicle, from the second autonomous vehicle, a second planned path associated with the second autonomous vehicle, the second planned path for the second autonomous vehicle differing from the first planned path for the second autonomous vehicle.
A method of generating a user's private key for use in a ZKP authentication protocol comprising, at a client: receiving a user specific identifier provided by the user; converting the identifier through a one-way function to a string of a pre-determined length; and mapping said string to a permutation π priv of a pre-determined order, said permutation being operable with a first graph G 1 to generate a second public graph G 2 = π priv (G 1) wherein said permutation is the user's private key. receiving a user specific identifier provided by the user; converting the identifier through a one-way function to a string of a pre-determined length; and mapping said string to a permutation π priv of a pre-determined order, said permutation being operable with a first graph G 1 to generate a second public graph G 2 = π priv (G 1) wherein said permutation is the user's private key.
Optoelectronic sensor, in particular for detecting a rotation angle, with a light emitter which emits transmitted light in a transmitted light direction and has a first light axis, a modulator which modulates the transmitted light and reflects as tail light and has a second light axis, and a light receiver which receives the tail light and has a third light axis, wherein the modulator is rotatable arranged relative to the light emitter and the light receiver, the light emitter and the light receiver are arranged opposite the modulator, characterized by a field lens with an optical axis, wherein the field lens is arranged between the modulator and the two light emitter and light receiver, and the field lens is arranged such that the optical axis is located at a same distance each to the first and third light axis (1a, 3a), and arranged to the light emitter such that the transmitted light is collimated, in particular parallelized, by the field lens, wherein an optical functional surface of the light emitter and an optical functional surface of the light receiver are on the same plane.
A gas turbine engine comprising: a turbomachine comprising a compressor section, a combustion section, a turbine section, and an exhaust section arranged in serial flow order and together defining at least in part a core air flowpath; and a thermal management system comprising a flowpath heat exchanger coupled to, or integrated into, one or more components of the compressor section, such that the flowpath heat exchanger is directly thermally coupled to an airflow through the core air flowpath; wherein the compressor section comprises a compressor with a heat transfer member and a row of compressor stator vanes one stage upstream of the heat transfer member, wherein the flowpath heat exchanger is coupled to, or integrated into, the heat transfer member, wherein the row of compressor stator vanes one stage upstream of the heat transfer member defines a maximum chord length, wherein the heat transfer member defines a maximum chord length, characterized in that the maximum chord length of the heat transfer member is greater than the maximum chord length of the row of compressor stator vanes one stage upstream of the heat transfer member. a turbomachine comprising a compressor section, a combustion section, a turbine section, and an exhaust section arranged in serial flow order and together defining at least in part a core air flowpath; and a thermal management system comprising a flowpath heat exchanger coupled to, or integrated into, one or more components of the compressor section, such that the flowpath heat exchanger is directly thermally coupled to an airflow through the core air flowpath; wherein the compressor section comprises a compressor with a heat transfer member and a row of compressor stator vanes one stage upstream of the heat transfer member, wherein the flowpath heat exchanger is coupled to, or integrated into, the heat transfer member, wherein the row of compressor stator vanes one stage upstream of the heat transfer member defines a maximum chord length, wherein the heat transfer member defines a maximum chord length, characterized in that the maximum chord length of the heat transfer member is greater than the maximum chord length of the row of compressor stator vanes one stage upstream of the heat transfer member.
A method of calibrating a camera in a vehicle for use in a driver assistance system, the method including the steps of: placing an upright target in the field of view of the camera at a first distance in front of the vehicle, said upright target having a pattern of symmetrically repeating light and dark portions that when imaged by the camera is recognizable as a series of uniquely identifiable points, said points being at a known distance from the ground; capturing a first image of said upright target, said first image comprising at least some of said points, and identifying therefrom top and bottom points in the captured image; determining a height from the ground of said top and bottom points; relocating said upright target at a second distance in front of the vehicle; capturing a second image of said upright target, said second image comprising at least some of said points; detecting vertically aligned points in the first and second images; matching points between the first and second images by mapping between image coordinates of said first image to matching image coordinates of said second image; computing a focus of expansion (FOE y), wherein a stationary point (y 0) of said mapping yields said focus of expansion (FOE y); and computing camera height from the vertical image coordinate of said stationary (y 0) point and from the height of said top and bottom points of the first captured image of said target from the ground. placing an upright target in the field of view of the camera at a first distance in front of the vehicle, said upright target having a pattern of symmetrically repeating light and dark portions that when imaged by the camera is recognizable as a series of uniquely identifiable points, said points being at a known distance from the ground; capturing a first image of said upright target, said first image comprising at least some of said points, and identifying therefrom top and bottom points in the captured image; determining a height from the ground of said top and bottom points; relocating said upright target at a second distance in front of the vehicle; capturing a second image of said upright target, said second image comprising at least some of said points; detecting vertically aligned points in the first and second images; matching points between the first and second images by mapping between image coordinates of said first image to matching image coordinates of said second image; computing a focus of expansion (FOE y), wherein a stationary point (y 0) of said mapping yields said focus of expansion (FOE y); and computing camera height from the vertical image coordinate of said stationary (y 0) point and from the height of said top and bottom points of the first captured image of said target from the ground.
Aerator with a housing, a stream-splitting device, arranged or formed in the housing, for the purpose of splitting an individual stream into a plurality of separate liquid portions, wherein the stream-splitting device has at least two flow ducts which are oriented obliquely in such a way that the streams formed by the flow ducts meet each other, wherein an insert part is inserted into a hole of a base body of the stream-splitting device such that the hole is divided into the at least two obliquely extending flow ducts, wherein the water streams that during use flow out of the flow ducts meet at an intersection point, and wherein the insert part is inserted into a groove in the base body, and the insert part is fixed on the base body by a retaining device, characterized in that the retaining device is formed as at least one latching projection formed on an inflow-side upper side of the base body.
An article processing system, comprising a master machine having a revolving body (12a, 13, 14) that is arranged to deliver an article, a plurality of slave machines each having a revolving body that operates in synchronization with the master machine and is arranged to deliver the article, an encoder for generating a pulse depending on rotation of the revolving body of the master machine, and control means for synchronizing the plurality of slave machines with the master machine based on a pulse generated by the encoder, the system being arranged to execute predetermined processing on the article while delivering the article by each revolving body of the master machine and the slave machines; wherein the control means is provided with a pulse generator for generating a predetermined pulse; wherein the control means controls the plurality of slave machines based on a pulse generated by the encoder during normal operating of the master machine; and wherein when the control means receives a signal indicating an abnormality in the master machine, the control means controls the plurality of slave machines with a pulse generated by the pulse generator, and generates a pulse in the pulse generator to continue the operation of the plurality of slave machines at least until the processing of an article retained by the plurality of slave machines is completed; and wherein star wheels, as its revolving bodies, each provided with a gripper for retaining a article, are placed in the delivery position between the master machine and one of said plurality of slave machines, and a gripper provided in at least one of the star wheels is provided with escape means for switching between a usage state in which an article is delivered and an escape state in which the gripper provided in at least one of the star wheels does not interfere with an article retained by the other star wheel, wherein in the event of an abnormality in the master machine, the escape means is activated such that the gripper of the one star wheel does not interfere with an article retained by the other star wheel.