mhurhangee/patent-ind-claim-en huggingface dataset:
A remote data concentrator comprising: a front end interface configured to receive optical energy as input from an optical link and provide link optical data as output to the optical link; a plurality of back end optical interfaces configured to connect to a plurality of sensor interfaces, wherein each of the plurality of back end optical interfaces are configured to provide sensor power as optical energy to the plurality of sensor interfaces (34a-34n) and receive sensor data as optical data from the plurality of sensor interfaces; and a control circuit configured to provide power from the front end interface to the plurality of back end optical interfaces and to provide the sensor data from the plurality of back end optical interfaces to the front end interface; wherein the front end interface includes a power converter configured to convert the optical energy from the optical link into electrical energy and provide the electrical energy to the control circuit; and wherein the control circuit comprises a plurality of controllers (40a - 40n) configured to each connect to a respective one of the plurality of back end optical interfaces, and wherein each of the plurality of controllers includes a power unit configured to store the electrical energy from the front end interface and provide stored electrical energy to the plurality of back end optical interfaces. a front end interface configured to receive optical energy as input from an optical link and provide link optical data as output to the optical link; a plurality of back end optical interfaces configured to connect to a plurality of sensor interfaces, wherein each of the plurality of back end optical interfaces are configured to provide sensor power as optical energy to the plurality of sensor interfaces (34a-34n) and receive sensor data as optical data from the plurality of sensor interfaces; and a control circuit configured to provide power from the front end interface to the plurality of back end optical interfaces and to provide the sensor data from the plurality of back end optical interfaces to the front end interface; wherein the front end interface includes a power converter configured to convert the optical energy from the optical link into electrical energy and provide the electrical energy to the control circuit; and wherein the control circuit comprises a plurality of controllers (40a - 40n) configured to each connect to a respective one of the plurality of back end optical interfaces, and wherein each of the plurality of controllers includes a power unit configured to store the electrical energy from the front end interface and provide stored electrical energy to the plurality of back end optical interfaces.
A method for wireless communication, comprising: identifying a first uplink component carrier of a plurality of component carriers configured for a user equipment, UE; determining that the first uplink component carrier is transmitted over a shared radio frequency spectrum band; performing a power management operation on the first uplink component carrier, for a current subframe, based at least in part on the determining wherein performing the power management operation for the current subframe comprises: scaling a transmit power on the first uplink component carrier to a reduced power for the current subframe; and using the reduced power as a maximum transmit power on the first uplink component carrier for the at least one subsequent subframe. identifying a first uplink component carrier of a plurality of component carriers configured for a user equipment, UE; determining that the first uplink component carrier is transmitted over a shared radio frequency spectrum band; performing a power management operation on the first uplink component carrier, for a current subframe, based at least in part on the determining wherein performing the power management operation for the current subframe comprises: scaling a transmit power on the first uplink component carrier to a reduced power for the current subframe; and using the reduced power as a maximum transmit power on the first uplink component carrier for the at least one subsequent subframe. scaling a transmit power on the first uplink component carrier to a reduced power for the current subframe; and using the reduced power as a maximum transmit power on the first uplink component carrier for the at least one subsequent subframe.
A method for molding a composite material having a curved corner part , the composite material molding method comprising: a first shaping step (S1) of shaping a laminate having the corner part curved at a first bending angle (Φ 2 ) and fiber sheets laminated such that a plate thickness of the laminate is reduced from an outside toward an inside of the corner part ; and a second shaping step (S2) of shaping the laminate such that the plate thickness of the laminate is reduced by curving the corner part of the laminate to be a second bending angle (Φ 1 ) smaller than the first bending angle (Φ 2 ). a first shaping step (S1) of shaping a laminate having the corner part curved at a first bending angle (Φ 2 ) and fiber sheets laminated such that a plate thickness of the laminate is reduced from an outside toward an inside of the corner part ; and a second shaping step (S2) of shaping the laminate such that the plate thickness of the laminate is reduced by curving the corner part of the laminate to be a second bending angle (Φ 1 ) smaller than the first bending angle (Φ 2 ).
Cleaning device for barrel and container pumps, comprising an immersion container for receiving a pump lance of the barrel or container pump via an insertion opening , with a plurality of cleaning nozzles connected to a cleaning agent source being associated with the immersion container so as to be distributed over at least a portion of its overall height, by means of which nozzles a cleaning agent can be distributed into a cleaning region along a central axis of the insertion opening , the cleaning nozzles being mounted on a nozzle support structure , characterized in that the nozzle support structure is a structure which is movable within the immersion container and to which the cleaning nozzles are rigidly or movably attached, the cleaning nozzles being rotatably mounted in such a way that they can be aligned with the wall of the immersion container .
An array of interconnected photovoltaic cells comprising: a first string of first photovoltaic cells electrically connected in series; and a second string of second photovoltaic cells electrically connected in series, said second string electrically connected in parallel with said first string; wherein the array is provided on a flexible insulating layer and/or a flexible insulating and conducting composite layer; characterized in that each of said first cells have a first shape and each of said second cells have a second shape different from said first shape; wherein said different shapes enable the array to be flexible. a first string of first photovoltaic cells electrically connected in series; and a second string of second photovoltaic cells electrically connected in series, said second string electrically connected in parallel with said first string; wherein the array is provided on a flexible insulating layer and/or a flexible insulating and conducting composite layer; characterized in that each of said first cells have a first shape and each of said second cells have a second shape different from said first shape; wherein said different shapes enable the array to be flexible.
A method comprising: receiving a serial data stream ; measuring payload time periods between signal transitions in a payload portion of the serial data stream using at least one Grey code oscillator ; and generating a recovered data signal corresponding to the payload portion of the serial data stream by, at least in part, comparing the measured payload time periods to one or more calibration time periods. receiving a serial data stream ; measuring payload time periods between signal transitions in a payload portion of the serial data stream using at least one Grey code oscillator ; and generating a recovered data signal corresponding to the payload portion of the serial data stream by, at least in part, comparing the measured payload time periods to one or more calibration time periods.
An atomizing device , comprising: a liquid storage housing provided with a liquid storage chamber and at least two liquid injection channels communicating the liquid storage chamber with an external environment; and at least two sealing plugs , wherein each of said sealing plugs is detachably inserted into one of the at least two liquid injection channels to open or seal the liquid storage chamber ; wherein an end of each of the sealing plugs away from the liquid storage chamber is provided with a magnetic attraction surface having magnetism. a liquid storage housing provided with a liquid storage chamber and at least two liquid injection channels communicating the liquid storage chamber with an external environment; and at least two sealing plugs , wherein each of said sealing plugs is detachably inserted into one of the at least two liquid injection channels to open or seal the liquid storage chamber ; wherein an end of each of the sealing plugs away from the liquid storage chamber is provided with a magnetic attraction surface having magnetism.
A method for locating probes within a gas turbine engine , the method comprising: positioning a plurality of location transmitters relative to the gas turbine engine , each location transmitter having a known location relative to the gas turbine engine ; inserting a probe through an access port of the gas turbine engine , the probe including a probe tip and a location signal receiver , the location signal receiver being configured to receive location-related signals transmitted from the plurality of location transmitters ; receiving the location-related signals at a computing device communicatively coupled to the probe ; determining, by the computing device , a current location of the probe tip within the gas turbine engine based on the location-related signals and the known locations of the plurality of location transmitters ; identifying, with the computing device , a virtual location of the probe tip within a three-dimensional model of the gas turbine engine corresponding to the current location of the probe tip within the gas turbine engine ; and providing for display, by the computing device , the three-dimensional model of the gas turbine engine , wherein the virtual location of the probe tip is displayed as a visual indicator within the three-dimensional model ; characterized in that said positioning a plurality of location transmitters relative to the gas turbine engine comprises positioning the plurality of location transmitters within a plurality of access ports of the gas turbine engine , the plurality of access ports differing from the access port through which the probe is inserted. positioning a plurality of location transmitters relative to the gas turbine engine , each location transmitter having a known location relative to the gas turbine engine ; inserting a probe through an access port of the gas turbine engine , the probe including a probe tip and a location signal receiver , the location signal receiver being configured to receive location-related signals transmitted from the plurality of location transmitters ; receiving the location-related signals at a computing device communicatively coupled to the probe ; determining, by the computing device , a current location of the probe tip within the gas turbine engine based on the location-related signals and the known locations of the plurality of location transmitters ; identifying, with the computing device , a virtual location of the probe tip within a three-dimensional model of the gas turbine engine corresponding to the current location of the probe tip within the gas turbine engine ; and providing for display, by the computing device , the three-dimensional model of the gas turbine engine , wherein the virtual location of the probe tip is displayed as a visual indicator within the three-dimensional model ; characterized in that said positioning a plurality of location transmitters relative to the gas turbine engine comprises positioning the plurality of location transmitters within a plurality of access ports of the gas turbine engine , the plurality of access ports differing from the access port through which the probe is inserted.
A method comprising: determining a value of a first parameter modulo a second parameter, wherein the first parameter is a lowest index among indices for a plurality of extended control channel elements, eCCEs, within an extended physical downlink control channel, ePDCCH, and the second parameter is a number of eCCEs per virtual resource block, VRB; determining a demodulation reference signal, DMRS, antenna port offset based on an identifier of a user equipment, UE, to receive a ePDCCH transmission and an eCCE aggregation level; determining a DMRS antenna port based on a sum of the value and the DMRS antenna port offset; and transmitting a signal using the determined DMRS antenna port to the UE. determining a value of a first parameter modulo a second parameter, wherein the first parameter is a lowest index among indices for a plurality of extended control channel elements, eCCEs, within an extended physical downlink control channel, ePDCCH, and the second parameter is a number of eCCEs per virtual resource block, VRB; determining a demodulation reference signal, DMRS, antenna port offset based on an identifier of a user equipment, UE, to receive a ePDCCH transmission and an eCCE aggregation level; determining a DMRS antenna port based on a sum of the value and the DMRS antenna port offset; and transmitting a signal using the determined DMRS antenna port to the UE.
An intelligent electronic decoration system, comprising: a single smart modular power cable, MPC, having a flexible body extending longitudinally between a proximal end and an opposite distal end, characterised in that the single MPC has a plurality of electronic ports (26-34) spaced apart along and fixedly attached to said body and arranged perpendicular thereto, said ports configured for being electrically coupled to external electronic devices, said MPC including conductors connected to said electronic ports (26-34) and said MPC configured to carry electrical power and communicate data along said conductors to said electronic ports (26-34); a housing selectively attached to or integral with said MPC at said proximal end of said MPC , said housing enclosing embedded electronics that are in electrical and data communication with said conductors, said embedded electronics having a rechargeable battery or rechargeable component , said rechargeable battery or rechargeable component configured for energizing external electronic devices that can be electrically coupled to said electronic ports (26-34), a microcontroller unit ("MCU") and a memory collectively positioned within an interior space defined by said housing , said embedded electronics being configured for data interfacing with wired or wireless communication components of said external electronic devices . a single smart modular power cable, MPC, having a flexible body extending longitudinally between a proximal end and an opposite distal end, characterised in that the single MPC has a plurality of electronic ports (26-34) spaced apart along and fixedly attached to said body and arranged perpendicular thereto, said ports configured for being electrically coupled to external electronic devices, said MPC including conductors connected to said electronic ports (26-34) and said MPC configured to carry electrical power and communicate data along said conductors to said electronic ports (26-34); a housing selectively attached to or integral with said MPC at said proximal end of said MPC , said housing enclosing embedded electronics that are in electrical and data communication with said conductors, said embedded electronics having a rechargeable battery or rechargeable component , said rechargeable battery or rechargeable component configured for energizing external electronic devices that can be electrically coupled to said electronic ports (26-34), a microcontroller unit ("MCU") and a memory collectively positioned within an interior space defined by said housing , said embedded electronics being configured for data interfacing with wired or wireless communication components of said external electronic devices .
Suction gripper system for the handling of at least one article , wherein the suction gripper system comprises a suction calotte for the handling of the at least one article and comprises a counterpart which is designed correspondingly to the suction calotte , wherein a magnetic element is furthermore provided, characterized in that a movably mounted magnetizable ball is furthermore provided, wherein the ball and the magnetic element are arranged in magnetically interactable fashion with respect to one another in order to influence a spatial position of the suction calotte in relation to the counterpart .
A method of scavenging power in a circuit including a power source generating electric current and a power consuming device having a time-variable power requirement, the method comprising: connecting a power scavenging device having an input terminal pair and an output terminal pair to the circuit via the input terminal pair , said power scavenging device further comprising an input voltage regulating circuit , an accumulation element and a boost DC to DC controller , wherein the power scavenging device is connected in series with the electrical power source and the power consuming device ; dynamically regulating a voltage drop across the input terminal pair of the power scavenging device according to the power requirement of the power consuming device , including using the input voltage regulating circuit to generate a voltage control signal ; harvesting electrical energy available at the regulated voltage drop from the electric current flowing through the first input terminal pair of the power scavenging device , including temporarily storing the harvested electrical energy in the accumulation element and using the boost DC to DC controller to control the energy in the accumulation element based on the voltage control signal ; and providing the harvested electrical energy at the output terminal pair of the power scavenging device . connecting a power scavenging device having an input terminal pair and an output terminal pair to the circuit via the input terminal pair , said power scavenging device further comprising an input voltage regulating circuit , an accumulation element and a boost DC to DC controller , wherein the power scavenging device is connected in series with the electrical power source and the power consuming device ; dynamically regulating a voltage drop across the input terminal pair of the power scavenging device according to the power requirement of the power consuming device , including using the input voltage regulating circuit to generate a voltage control signal ; harvesting electrical energy available at the regulated voltage drop from the electric current flowing through the first input terminal pair of the power scavenging device , including temporarily storing the harvested electrical energy in the accumulation element and using the boost DC to DC controller to control the energy in the accumulation element based on the voltage control signal ; and providing the harvested electrical energy at the output terminal pair of the power scavenging device .
Joint sealing tape which is compressible and has two longitudinal sides and also a first joint flank side which adjoins the one joint flank in the application of the joint sealing tape and a second joint flank side which adjoins the opposite joint flank in the application of the joint sealing tape , wherein the joint sealing tape comprises at least three layers , wherein one layer formed as a foam layer forms the one longitudinal side and another layer formed as a foam layer forms the other longitudinal side , wherein at least one layer which does not form the longitudinal sides is formed as a drainage layer , composed of an at least predominantly open-cell foam, which is at least partially provided with a hydrophobic finish, or composed of crosslinked foam, for the collection and targeted conduction of water away from the joint sealing tape , wherein the drainage layer is arranged as an internal layer within the joint sealing tape and thus between the foam layers forming the longitudinal sides , wherein the drainage layer is configured such that the water is conducted away under the influence of gravity, characterized in that the foam layers forming the longitudinal sides are formed from a raw foam which is homogeneously impregnated with acrylates, wherein the drainage layer is not impregnated with acrylates.
A method of fabricating a ceramic article, the method comprising: serially depositing first, second and third different materials within a porous structure using, respectively, first, second and third different processing techniques wherein the first and third processing techniques are selected from the group consisting of chemical vapor infiltration of a gas, melt infiltration of a metallic material and vapor infiltration of a metallic material, and the second processing technique is polymer infiltration and pyrolysis using a heating rate of 5°C/min or greater, to form a ceramic article, the first, second and third different materials differing by at least one of: composition and microstructure, the depositing of the first material being controlled such that there are first residual voids in the porous structure into which the second material is deposited and the depositing of the second material being controlled such that there are second residual voids in the porous structure into which the third material is deposited. composition and microstructure,
Rear wall connector comprising a stud , which has a receiving groove , and two walls standing up from the stud on both sides of the receiving groove , which each have an opening for screwing in a screw , characterized in that one of the two walls forms one arm of a rocker which is mounted on the stud such that it is pivotable between a starting position and an end position about an axis which is parallel or almost parallel to the longitudinal direction of the receiving groove , the pivot axis of the rocker is formed by two torsion webs via which the rocker is attached to the stud on both sides, the inside of the one, second wall is positioned obliquely outwards with respect to the longitudinal centre plane of the receiving groove in the starting position and extends parallel to the longitudinal centre plane in the end position, and the other rocker arm projects outwards over the stud , at least in the end position.