mhurhangee/ep-ind-claims huggingface dataset:
Method for optically measuring a range R of an object from a rangefinding device, comprising the steps of: a) emitting a train of light pulses from said rangefinding device toward said object for reflection thereby, each of said light pulses having an emission time and a pulse duration; b) detecting light received by said rangefinding device during three time intervals determined by a background gate, a ranging gate, and a pulse energy gate; c) integrating light detected during each of said time intervals, thereby obtaining an integrated light value for each of said gates (54, 56, 58); d) normalizing the integrated light value for said ranging gate using the integrated light values for the background and pulse energy gates (54, 58), thereby obtaining a normalized ranging measurement; and e) determining said range R of the object from said normalized ranging measurement and calibration data, the method being characterised in that: - the pulse duration of each of said light pulses corresponds to a round-trip time to a maximum range; - the three time intervals have a same gate duration corresponding to twice the pulse duration; - the background gate closes at the emission time of one of said light pulses; - the ranging gate is centered on the emission time of another one of said light pulses; - the pulse energy gate opens at the emission time of yet another one of said light pulses. a) emitting a train of light pulses from said rangefinding device toward said object for reflection thereby, each of said light pulses having an emission time and a pulse duration; b) detecting light received by said rangefinding device during three time intervals determined by a background gate, a ranging gate, and a pulse energy gate; c) integrating light detected during each of said time intervals, thereby obtaining an integrated light value for each of said gates (54, 56, 58); d) normalizing the integrated light value for said ranging gate using the integrated light values for the background and pulse energy gates (54, 58), thereby obtaining a normalized ranging measurement; and e) determining said range R of the object from said normalized ranging measurement and calibration data, the method being characterised in that: - the pulse duration of each of said light pulses corresponds to a round-trip time to a maximum range; - the three time intervals have a same gate duration corresponding to twice the pulse duration; - the background gate closes at the emission time of one of said light pulses; - the ranging gate is centered on the emission time of another one of said light pulses; - the pulse energy gate opens at the emission time of yet another one of said light pulses. - the pulse duration of each of said light pulses corresponds to a round-trip time to a maximum range; - the three time intervals have a same gate duration corresponding to twice the pulse duration; - the background gate closes at the emission time of one of said light pulses; - the ranging gate is centered on the emission time of another one of said light pulses; - the pulse energy gate opens at the emission time of yet another one of said light pulses.
A T-cell epitope composition comprising at least one isolated T-cell polypeptide which engages and activates pre-existing natural Treg cells consisting of an amino acid sequence comprising one or more conserved amino acid substitutions of a sequence selected from any of SEQ ID NOS: 44 to 47.
A method comprising: initiating a network connection communication with a mobile device; sending a message to the mobile device over the network connection; receiving and storing the sent message and associated content on the mobile device; the content comprising information identifying at least one of the parties included in a call event; after receiving and storing the associated content on the mobile device, generating a trigger at the mobile device, wherein the trigger comprises information personalized to the at least one of the parties, and in response to the trigger, displaying the stored content associated with the trigger on a display of the mobile device. initiating a network connection communication with a mobile device; sending a message to the mobile device over the network connection; receiving and storing the sent message and associated content on the mobile device; the content comprising information identifying at least one of the parties included in a call event; after receiving and storing the associated content on the mobile device, generating a trigger at the mobile device, wherein the trigger comprises information personalized to the at least one of the parties, and in response to the trigger, displaying the stored content associated with the trigger on a display of the mobile device.
1. A sweat sensing device configured to be placed on a wearer's skin, comprising: an analyte sensor for measuring a target analyte in a sweat sample; one or more volume-reducing components comprising a sample collector, a sample coupler configured to transport sweat across the analyte sensor, and a sample pump configured to move excess sweat from the sample coupler, an outer electromagnetic shield and an inner electromagnetic shield, wherein the inner electromagnetic shield is integrated with the one or more volume reducing components, wherein the outer electromagnetic shield (290, 292) is configured to protect the analyte sensor from electromagnetic interference propagating from outside the wearer's body, and the inner electromagnetic shield is configured to protect the analyte sensor from electromagnetic interference propagating from inside the wearer's body, or through the wearer's body; and wherein the outer and inner electromagnetic shields each include at least one electrically conductive coating, and an electrical insulator coating. an analyte sensor for measuring a target analyte in a sweat sample; one or more volume-reducing components comprising a sample collector, a sample coupler configured to transport sweat across the analyte sensor, and a sample pump configured to move excess sweat from the sample coupler, an outer electromagnetic shield and an inner electromagnetic shield, wherein the inner electromagnetic shield is integrated with the one or more volume reducing components, wherein the outer electromagnetic shield (290, 292) is configured to protect the analyte sensor from electromagnetic interference propagating from outside the wearer's body, and the inner electromagnetic shield is configured to protect the analyte sensor from electromagnetic interference propagating from inside the wearer's body, or through the wearer's body; and wherein the outer and inner electromagnetic shields each include at least one electrically conductive coating, and an electrical insulator coating.
A signal processing device comprising: a first medium; a second medium; a lipid interface (4, 33) arranged between the first medium and the second medium, wherein the lipid interface (4, 33) comprises a plurality of lipid molecules; a plurality of input transducers each arranged to apply a corresponding one of a plurality of input signals to the lipid interface (4, 33), wherein each input signal is arranged to generate a mechanical pulse in the lipid interface (4, 33), thereby to provide a plurality of mechanical pulses in the lipid interface; and an output transducer arranged to receive the resultant interaction of the plurality of mechanical pulses generated by the plurality of input transducers respectively as an output signal by detecting a mechanical response in the lipid interface from the plurality of mechanical pulses generated in the lipid interface by the plurality of input transducers; wherein the lipid interface is arranged to propagate the mechanical pulse from the input transducers via the lipid interface to the output transducer. a first medium; a second medium; a lipid interface (4, 33) arranged between the first medium and the second medium, wherein the lipid interface (4, 33) comprises a plurality of lipid molecules; a plurality of input transducers each arranged to apply a corresponding one of a plurality of input signals to the lipid interface (4, 33), wherein each input signal is arranged to generate a mechanical pulse in the lipid interface (4, 33), thereby to provide a plurality of mechanical pulses in the lipid interface; and an output transducer arranged to receive the resultant interaction of the plurality of mechanical pulses generated by the plurality of input transducers respectively as an output signal by detecting a mechanical response in the lipid interface from the plurality of mechanical pulses generated in the lipid interface by the plurality of input transducers; wherein the lipid interface is arranged to propagate the mechanical pulse from the input transducers via the lipid interface to the output transducer.
A host computer device, comprising: a memory to store data and instructions; a processor in communication with the memory; a virtual machine hosted by the memory and the processor comprising a virtual administrator component in communication with the processor and the memory, wherein the virtual administrator component is operable to: receive virtual enhanced transmission selection, ETS, settings information from the host computer device; create at least one priority rule for tagging one or more data packets from an application executing on the virtual machine with a virtual priority value based on the virtual ETS settings information, wherein tagging the one or more data packets with the virtual priority value based on the at least one priority rule is performed by the application executing on the virtual machine; and transmit the one or more data packets with the virtual priority value to the host computer device. a memory to store data and instructions; a processor in communication with the memory; a virtual machine hosted by the memory and the processor comprising a virtual administrator component in communication with the processor and the memory, wherein the virtual administrator component is operable to: receive virtual enhanced transmission selection, ETS, settings information from the host computer device; create at least one priority rule for tagging one or more data packets from an application executing on the virtual machine with a virtual priority value based on the virtual ETS settings information, wherein tagging the one or more data packets with the virtual priority value based on the at least one priority rule is performed by the application executing on the virtual machine; and transmit the one or more data packets with the virtual priority value to the host computer device. receive virtual enhanced transmission selection, ETS, settings information from the host computer device; create at least one priority rule for tagging one or more data packets from an application executing on the virtual machine with a virtual priority value based on the virtual ETS settings information, wherein tagging the one or more data packets with the virtual priority value based on the at least one priority rule is performed by the application executing on the virtual machine; and transmit the one or more data packets with the virtual priority value to the host computer device.
A liquid jet head comprising: a piezoelectric substrate having a plurality of groove rows in each of which elongated ejection grooves and elongated non-ejection grooves are alternately arranged in a reference direction, wherein the ejection grooves penetrate the substrate from an upper surface through a lower surface of the substrate and the non-ejection grooves are opened in the lower surface of the substrate, wherein a thickness direction of the piezoelectric substrate is defined as a vertical direction in which the upper and lower surfaces (US, LS) of the substrate are separated, wherein a groove direction in which the ejection grooves and the non-ejection grooves are elongated is perpendicular to the reference direction, and wherein the groove direction and the reference direction are both perpendicular to the thickness direction, wherein, in adjacent ones of the groove rows, ends on a second side of ejection grooves included in a groove row located on a first side and ends on the first side of non-ejection grooves included in a groove row located on the second side are separated from each other and overlap each other in the thickness direction of the piezoelectric substrate. a piezoelectric substrate having a plurality of groove rows in each of which elongated ejection grooves and elongated non-ejection grooves are alternately arranged in a reference direction, wherein the ejection grooves penetrate the substrate from an upper surface through a lower surface of the substrate and the non-ejection grooves are opened in the lower surface of the substrate, wherein a thickness direction of the piezoelectric substrate is defined as a vertical direction in which the upper and lower surfaces (US, LS) of the substrate are separated, wherein a groove direction in which the ejection grooves and the non-ejection grooves are elongated is perpendicular to the reference direction, and wherein the groove direction and the reference direction are both perpendicular to the thickness direction, wherein, in adjacent ones of the groove rows, ends on a second side of ejection grooves included in a groove row located on a first side and ends on the first side of non-ejection grooves included in a groove row located on the second side are separated from each other and overlap each other in the thickness direction of the piezoelectric substrate.
A combustor of a gas turbine engine, comprising: a fuel spray portion configured to spray a fuel so as to create a diffusion combustion region in a combustion chamber, the fuel spray portion including a fuel atomizing portion configured to atomize the fuel, and a diffusion passage portion disposed downstream of the fuel atomizing portion, the diffusion passage portion having a spreading trumpet-like shape and being configured to diffuse the fuel and the air; a pre-mixture supply portion configured to supply a pre-mixture gas including the fuel and an air so as to create a pre-mixture combustion region in the combustion chamber, the pre-mixture supply portion being positioned concentrically with the fuel spray portion so as to surround the fuel spray portion; and fuel diffusion restraining means disposed on and protruding from an inner circumferential face of the diffusion passage portion for restraining a diffusion of an injected fuel by separating a stream of the injected fuel away from the inner circumferential face, the fuel diffusion restraining means including an annular step member having a triangular longitudinal section so as to have an inner face which is parallel with an axis of the fuel spray portion. a fuel spray portion configured to spray a fuel so as to create a diffusion combustion region in a combustion chamber, the fuel spray portion including a fuel atomizing portion configured to atomize the fuel, and a diffusion passage portion disposed downstream of the fuel atomizing portion, the diffusion passage portion having a spreading trumpet-like shape and being configured to diffuse the fuel and the air; a pre-mixture supply portion configured to supply a pre-mixture gas including the fuel and an air so as to create a pre-mixture combustion region in the combustion chamber, the pre-mixture supply portion being positioned concentrically with the fuel spray portion so as to surround the fuel spray portion; and fuel diffusion restraining means disposed on and protruding from an inner circumferential face of the diffusion passage portion for restraining a diffusion of an injected fuel by separating a stream of the injected fuel away from the inner circumferential face, the fuel diffusion restraining means including an annular step member having a triangular longitudinal section so as to have an inner face which is parallel with an axis of the fuel spray portion.
A coating composition comprising: a hydroxyphenyl functional polymer, wherein the hydroxyphenyl functional polymer is a poly(hydroxystyrene); a latex polymer; and a crosslinker. a hydroxyphenyl functional polymer, wherein the hydroxyphenyl functional polymer is a poly(hydroxystyrene); a latex polymer; and a crosslinker.
A method for fetching by a client device a content identified by a content identifier from a web server using tunnel devices (33a-e), for use with a group of tunnel devices and first and second servers that are each connected to the Internet and are each addressable in the Internet using a respective Internet Protocol, IP, address, the second server stores a list of the IP addresses of the tunnel devices in the group, the method comprising: receiving, by the first server from the client device, a request message that comprises the content identifier, sending, by the first server to the second server, a first message that includes a request for the list of IP addresses, in response to the receiving of the request message; receiving, by the first server from the second server, the list of the IP addresses, in response to the first message; selecting, by the first server, based on a criterion included in the request message, a tunnel device from the received list of IP addresses; sending, by the first server to the selected tunnel device a second message that comprises the content identifier; receiving, by the first server from the selected tunnel device, the content in response to the second message; and sending, by the first server to the client device, the content received from the selected tunnel device. receiving, by the first server from the client device, a request message that comprises the content identifier, sending, by the first server to the second server, a first message that includes a request for the list of IP addresses, in response to the receiving of the request message; receiving, by the first server from the second server, the list of the IP addresses, in response to the first message; selecting, by the first server, based on a criterion included in the request message, a tunnel device from the received list of IP addresses; sending, by the first server to the selected tunnel device a second message that comprises the content identifier; receiving, by the first server from the selected tunnel device, the content in response to the second message; and sending, by the first server to the client device, the content received from the selected tunnel device.
A method for operating a first radio access system, comprising the step of: - configuring, by a network node operating in said first radio access system, a first carrier having a first carrier frequency band and a second carrier having a second carrier frequency band for use for radio access in a first radio access system; wherein said second carrier is configured for frequency division duplex signalling; wherein a frequency band of said second carrier is defined to, at least partially, overlap in frequency with a frequency band of a third carrier having a third carrier frequency band of a second radio access system; wherein said third carrier has an overlapping coverage area with said second carrier; wherein at least a part (91; 91A-B) of said frequency band of said second carrier overlaps in frequency with guard bands (92A-B) of said third carrier; and - transferring, from the network node, the configuration information to other network nodes in said first radio access system. - configuring, by a network node operating in said first radio access system, a first carrier having a first carrier frequency band and a second carrier having a second carrier frequency band for use for radio access in a first radio access system; wherein said second carrier is configured for frequency division duplex signalling; wherein a frequency band of said second carrier is defined to, at least partially, overlap in frequency with a frequency band of a third carrier having a third carrier frequency band of a second radio access system; wherein said third carrier has an overlapping coverage area with said second carrier; wherein at least a part (91; 91A-B) of said frequency band of said second carrier overlaps in frequency with guard bands (92A-B) of said third carrier; and wherein said second carrier is configured for frequency division duplex signalling; wherein a frequency band of said second carrier is defined to, at least partially, overlap in frequency with a frequency band of a third carrier having a third carrier frequency band of a second radio access system; wherein said third carrier has an overlapping coverage area with said second carrier; wherein at least a part (91; 91A-B) of said frequency band of said second carrier overlaps in frequency with guard bands (92A-B) of said third carrier; and - transferring, from the network node, the configuration information to other network nodes in said first radio access system.
An electromechanical actuator device suitable for use under water in petroleum activity, in which, via a transmission element (30, 34, 36), an electric motor, including a stator and a rotor, is arranged to move an actuation element between at least a first position and a second position, wherein the rotor of the electric motor surrounds and is connected to an actuator nut, and wherein the actuator nut includes a number of threaded rollers which are arranged axially within the actuator nut, the extremities of the threaded rollers axes being fixed to the actuator nut, the threaded rollers being distributed around the cylindrical actuation element, are arranged to rotate freely around their own longitudinal axes in the actuator nut, and are in threaded engagement with the actuation element, characterized in that the actuation element surrounds a through-going opening (8, 78) constituting a fluid and tool passage path, an internally conical locking ring surrounding locking elements located around a portion of the through-going opening, whereby movement of the actuation element brings the locking ring axially in over the locking segments, thereby displacing the locking segments radially inward.
A fully human anti-TNF-α monoclonal antibody, having an amino acid sequence of heavy chain as shown in SEQ ID NO: 10 and an amino acid sequence of light chain as shown in SEQ ID NO: 12.
Non-pneumatic elastic wheel defining three perpendicular directions, circumferential, axial and radial, comprising at least: - a hub; - an annular band known as a shear band oriented in the circumferential direction, surmounted by a tread; - a plurality of support elements connecting the hub to the annular band known as a shear band, the annular band known as a shear band being formed by a laminate (10; 20), characterized the annular band known as a shear band comprise at least one layer (1; 1a, 1b) of silicone rubber sandwiched between two layers (2; 2a,2b,2c) of fibre-resin composite comprising filaments of an inorganic substance embedded in a thermoset resin. - a hub; - an annular band known as a shear band oriented in the circumferential direction, surmounted by a tread; - a plurality of support elements connecting the hub to the annular band known as a shear band,
Multiple nozzle body for an agricultural field sprayer, the multiple nozzle body having a distributor housing with a plurality of connector stubs with associated shut-off valves for the arrangement of spray nozzles and/or drag hoses, to which the supply of the liquid to be discharged can be selectively released or shut off to one or more of the connector stubs via the shut-off valves, characterized in that at least two connector stubs are arranged spaced apart from one another by at least approximately 25 cm, with the result that spray nozzles can be arranged selectively or drag hoses can be arranged directly on the at least two connector stubs.