mhurhangee/patent-ind-claim-en huggingface dataset:
A tracking method, comprising: receiving, from a client , a plurality of propagation components corresponding to a plurality of propagation paths (d j ), said propagation components being extracted from an electromagnetic signal received by said client at a location from at least one electromagnetic emitter (T j ); comparing said received propagation components with a plurality of pre-stored propagation components associated with a plurality of known locations; determining information pertaining to said location of said client based on said comparison; and providing said information to said client ; characterized in that said comparison comprises generating a plurality of similarity metrics corresponding to said plurality of known locations, wherein generating a similarity metric of said plurality of similarity metrics corresponding to a known location of said plurality of known locations comprises matching said received propagation components to pre-stored propagation components associated with said known location based on a similarity threshold (ε), wherein for every received propagation component, a best match value is selected from said pre-stored propagation components associated with said known location and said best match value and said received propagation component are considered matched if an absolute value of a difference between said best match value and said received propagation component is less than said similarity threshold (ε). receiving, from a client , a plurality of propagation components corresponding to a plurality of propagation paths (d j ), said propagation components being extracted from an electromagnetic signal received by said client at a location from at least one electromagnetic emitter (T j ); comparing said received propagation components with a plurality of pre-stored propagation components associated with a plurality of known locations; determining information pertaining to said location of said client based on said comparison; and providing said information to said client ; said comparison comprises generating a plurality of similarity metrics corresponding to said plurality of known locations, wherein generating a similarity metric of said plurality of similarity metrics corresponding to a known location of said plurality of known locations comprises matching said received propagation components to pre-stored propagation components associated with said known location based on a similarity threshold (ε), wherein for every received propagation component, a best match value is selected from said pre-stored propagation components associated with said known location and said best match value and said received propagation component are considered matched if an absolute value of a difference between said best match value and said received propagation component is less than said similarity threshold (ε).
An electronic device having a heat dissipation function, the electronic device comprising: a heating element provided in a casing (C); a heat dissipation means provided in the casing (C) to be adjacent to the heating element and causing an ionic wind to flow to an inner space (S) in which the heating element is installed; and a heat dissipation bridge protruding in a direction of the heating element to exchange heat with the ionic wind flowing through the inner space (S), at least a portion of the heat dissipation bridge being connected to a heat sink to transfer heat received from the heating element to the heat sink , characterized in that the heat sink is provided in the casing (C) such that at least a portion of an outer surface of the heat sink is exposed to an outside and the heat dissipation bridge is connected to an inner surface of the heat sink . a heating element provided in a casing (C); a heat dissipation means provided in the casing (C) to be adjacent to the heating element and causing an ionic wind to flow to an inner space (S) in which the heating element is installed; and a heat dissipation bridge protruding in a direction of the heating element to exchange heat with the ionic wind flowing through the inner space (S), at least a portion of the heat dissipation bridge being connected to a heat sink to transfer heat received from the heating element to the heat sink , characterized in that the heat sink is provided in the casing (C) such that at least a portion of an outer surface of the heat sink is exposed to an outside and the heat dissipation bridge is connected to an inner surface of the heat sink .
Support suitable for coupling at least one pedal to a structural portion of a motor vehicle, comprising a body (30;60) comprising at least one coupling (31d,32d;61d,62d) for coupling the pedal to the support (1;10) through a shaft of the pedal and at least one fixing zone (34,35;64,65) for fixing the support (1;10) to the structural portion, and at least one reinforcement (20;40) fixed to said body (30;60), whereby the body (30;60) is made of a plastic material and the reinforcement (20;40) is made of metal, characterised in that the reinforcement (20;40) comprises a central body (22;42) that is fixed to the coupling (31d,32d;61d,62d), a first arm (23;43) extending from the central body (22;42) to a first fixing zone (34;64) of the body (30;60) and a second arm (24;44) extending from the central body (22;42) to a second fixing zone (35;65) of the body (30;60), the arms (23,24;43;44) together with the central body (22;42) forming a substantially V-shaped geometry, the central body (22;42) being arranged as the vertex of said geometry.
A safe operation method for a voltage reduction arc suppression of a ground fault phase of a non-effective ground system, for use in a ground fault safe operation of a neutral point non-effective ground generator or distribution network, characterized in that when a single-phase ground fault occurs, an external voltage source is applied at a non-effective ground system side between a bus and the ground, or between a line and the ground, or between a neutral point and the ground, or between a shunting tap of a non-effective ground system side winding of a transformer and the ground, and the voltage output by the external voltage source is U̇ = U̇ 1 + Δ U̇ 0 , so that the fault phase voltage is reduced to achieve the voltage arc suppression and an active voltage reduction operation of the ground fault; where U̇ 1 is a normal voltage of an access point when a normal grid voltage source is not connected, the variation of zero sequence voltage Δ U̇ 0 is calculated from formula Δ U̇ 0 = U̇ 03 - U̇ 01 or Δ U̇ 0 = U̇ φ 1 - Ė φ , U̇ 03 is a zero sequence voltage after the active voltage reduction, U̇ 01 is a zero sequence voltage under normal operation, Ė φ is a power voltage of a ground fault phase, U̇ φ 1 is a fault phase voltage in a range of [0, U φ0 ) after the external voltage source is applied, and U φ 0 is a fault phase voltage before the external voltage source is applied.
Circuit arrangement (AS) for a protective device for an installation, in particular for satellites and/or satellite-testing systems, with one or more electrical power sources (EQ), which have variable current and/or voltage parameters, consisting of: - at least three parallel connected safety channels (PS1, ..., PS4), which comprise respectively a current measuring device (M1, ..., M4) and at least one switch (S1, ..., S4), and which have defined resistance values such that a total current is divided symmetrically between the safety channels (PS1, ..., PS4), - and a central control logic (SL) for controlling and switching the safety channels (PS1, ..., PS4), from which a total current of the safety channels (PS1, ..., PS4) can be determined, characterised in that differences in the currents in the safety channels (PS1, ..., PS4) can also be determined by means of the central control logic (SL), and wherein on the basis of a comparison of determined current flow and differences in the currents in the safety channels (PS1, ..., PS4) with thresholds programmed into the central control logic (SL) the defined resistance values of the safety channels (PS1, ..., PS4) can be controlled by the central control logic (SL) such that fluctuations in the resistance values are compensated. - at least three parallel connected safety channels (PS1, ..., PS4), which comprise respectively a current measuring device (M1, ..., M4) and at least one switch (S1, ..., S4), and which have defined resistance values such that a total current is divided symmetrically between the safety channels (PS1, ..., PS4), - and a central control logic (SL) for controlling and switching the safety channels (PS1, ..., PS4), from which a total current of the safety channels (PS1, ..., PS4) can be determined,
Device for radiotherapy treatment with high dose rate of ionizing radiation for cancer patients, comprising at least one accelerating guide of a radiofrequency accelerator of a charged particles beam, in which said accelerating guide comprises an accelerating cavity, said particles being adapted to generate a magnetic field perpendicular to the axis of a current beam of said charged particles, said device also comprising at least two resonant cavities simultaneously thermostated, and an optical system of the beam; said resonant cavities being located upstream and facing said optical system , positioned perpendicularly to said magnetic fields and being tuned to a same resonance frequency which is equal to the working mode frequency of said accelerating guide , said resonant cavities comprising each respectively at least one second pick-up consisting of a coil; wherein said at least two resonant cavities and said respective at least one second pick-up are able to measure said current which is proportional to the dose of a beam current absorbed by a target, said at least two resonant cavities being made in order to measure independently said dose of beam current absorbed by the target, said device being characterized in comprising at least a first pick-up consisting of a coil, which is comprised in said accelerating guide and placed inside said accelerating cavity, in which said first pick-up is positioned orthogonally to said axis of the current beam and is able to measure in a non-destructive way a kinetic energy of said charged particles beam and the flow variation of said magnetic field. said particles being adapted to generate a magnetic field perpendicular to the axis of a current beam of said charged particles, said device also comprising at least two resonant cavities simultaneously thermostated, and an optical system of the beam; said resonant cavities being located upstream and facing said optical system , positioned perpendicularly to said magnetic fields and being tuned to a same resonance frequency which is equal to the working mode frequency of said accelerating guide , said resonant cavities comprising each respectively at least one second pick-up consisting of a coil; wherein said at least two resonant cavities and said respective at least one second pick-up are able to measure said current which is proportional to the dose of a beam current absorbed by a target, said at least two resonant cavities being made in order to measure independently said dose of beam current absorbed by the target, said device being characterized in comprising at least a first pick-up consisting of a coil, which is comprised in said accelerating guide and placed inside said accelerating cavity, in which said first pick-up is positioned orthogonally to said axis of the current beam and is able to measure in a non-destructive way a kinetic energy of said charged particles beam and the flow variation of said magnetic field.
An aircraft seat assembly comprising: an aircraft seat including an armrest and at least one spar tube ; a bassinet including at least one mount bracket ; and an adapter plate for the aircraft seat, comprising: a body positioned exterior of the armrest within a space proximate to the aircraft seat or positioned to share a plane with the armrest, the body comprising: at least one coupler configured to attach to the at least one spar tube of the aircraft seat; and at least one mount point , the at least one mount point of the body configured to attach to the at least one mount bracket of the bassinet, the bassinet positioned within a space proximate to the aircraft seat when coupled to the at least one mount point of the body via the at least one mount bracket. an aircraft seat including an armrest and at least one spar tube ; a bassinet including at least one mount bracket ; and an adapter plate for the aircraft seat, comprising: a body positioned exterior of the armrest within a space proximate to the aircraft seat or positioned to share a plane with the armrest, the body comprising: at least one coupler configured to attach to the at least one spar tube of the aircraft seat; and at least one mount point , the at least one mount point of the body configured to attach to the at least one mount bracket of the bassinet, the bassinet positioned within a space proximate to the aircraft seat when coupled to the at least one mount point of the body via the at least one mount bracket. a body positioned exterior of the armrest within a space proximate to the aircraft seat or positioned to share a plane with the armrest, the body comprising: at least one coupler configured to attach to the at least one spar tube of the aircraft seat; and at least one mount point , the at least one mount point of the body configured to attach to the at least one mount bracket of the bassinet, the bassinet positioned within a space proximate to the aircraft seat when coupled to the at least one mount point of the body via the at least one mount bracket.
Electric-vehicle battery including a case containing at least one battery cell adapted to store electrical energy, the battery including an electrical connector of the battery and a radio-identification chip including an identifier; characterized in that the battery includes an electronic card for managing the battery, distinct from the radio-identification chip , and in that the electronic card includes a unique identifier of the battery, the unique identifier being able to be read by an adapted electronic device when the electrical connector of the battery is connected to said electronic device. characterized in that the battery includes an electronic card for managing the battery, distinct from the radio-identification chip , and in that the electronic card includes a unique identifier of the battery, the unique identifier being able to be read by an adapted electronic device when the electrical connector of the battery is connected to said electronic device.
A pneumatic control device (32.1, 32.2, 32.3, 32.4) for a hydrodynamic retarder, having a working pressure port , which is connected to a supply container of the retarder, having at least two inlet valves , via which a working pressure line leading to the working pressure port can be connected to a ventilation line connected to a compressed air source , and having at least one outlet valve, via which the working pressure line can be connected to a venting line connected to a venting outlet , wherein two outlet valves (34, 36 ; 40, 42) connected in parallel to each other are arranged in the control device (32.1, 32.2, 32.3, 32.4), via which the working pressure line can be connected to the venting line , characterized in that the two inlet valves (48, 50; 52, 54) have different opening cross-sections.
Method for manufacturing a bulkhead component, which comprises at least one lock extending across the entire length of the bulkhead component with a consistent cross-section for hanging the lock of another bulkhead component, wherein, in the case of the method: an intermediate product is manufactured by means of forming and the lock viewed in the cross-section is manufactured at least in sections by means of machining on the section of the intermediate product to be provided with the lock, wherein the section is measured in the cross-section sufficiently enough that the measurement deviations arising due to the forming performed on the intermediate product are taken into account when machining the lock, characterized in that the bulkhead component is a lobe support with a cross-sectional form expanding in a V-shaped manner towards the free end of the T-beam as a lock for hanging the lock of another bulkhead component, and, in a cross-sectional view, the lock is manufactured at least in sections from an intermediate product by means of machining with the aid of a mobile machining station. an intermediate product is manufactured by means of forming and the lock viewed in the cross-section is manufactured at least in sections by means of machining on the section of the intermediate product to be provided with the lock, wherein the section is measured in the cross-section sufficiently enough that the measurement deviations arising due to the forming performed on the intermediate product are taken into account when machining the lock, characterized in that the bulkhead component is a lobe support with a cross-sectional form expanding in a V-shaped manner towards the free end of the T-beam as a lock for hanging the lock of another bulkhead component, and, in a cross-sectional view, the lock is manufactured at least in sections from an intermediate product by means of machining with the aid of a mobile machining station.
A method of managing interference in a wireless communication network, the method performed by a first Transmit-Receive Point, TRP, of the wireless communication network, and comprising: transmitting a first downlink signal to an electronic device using a transmission beam , the first downlink signal having a first downlink Angle of Departure, AoD, defined with respect to the first TRP ; receiving a first uplink pilot signal from the electronic device , wherein a first Angle of Arrival, AoA, of the first uplink pilot signal , defined with respect to the first TRP, is associated with the first downlink AoD; receiving a second uplink pilot signal from the electronic device , the second uplink pilot signal associated with an uplink AoD defined with respect to the electronic device , wherein the uplink AoD corresponds to a direction of reception at the electronic device of a second downlink signal from a second TRP of the wireless communication network and of a first leakage signal resulting from the transmission beam ; and reconfiguring the transmission beam to alter the first leakage signal based on the received first uplink pilot signal and the received second uplink pilot signal . transmitting a first downlink signal to an electronic device using a transmission beam , the first downlink signal having a first downlink Angle of Departure, AoD, defined with respect to the first TRP ; receiving a first uplink pilot signal from the electronic device , wherein a first Angle of Arrival, AoA, of the first uplink pilot signal , defined with respect to the first TRP, is associated with the first downlink AoD; receiving a second uplink pilot signal from the electronic device , the second uplink pilot signal associated with an uplink AoD defined with respect to the electronic device , wherein the uplink AoD corresponds to a direction of reception at the electronic device of a second downlink signal from a second TRP of the wireless communication network and of a first leakage signal resulting from the transmission beam ; and reconfiguring the transmission beam to alter the first leakage signal based on the received first uplink pilot signal and the received second uplink pilot signal .
A method of manufacturing lithium-metal nitride comprising: suspending a lithium-metal-oxide-powder (LMOP) within a gaseous mixture; incrementally heating the suspended LMOP to a holding temperature of between 400 and 800 degrees Celsius such that the LMOP reaches the holding temperature; maintaining the LMOP at the holding temperature for a time period in order for the gaseous mixture and the LMOP to react to form a lithium-metal nitride powder (LMNP); and degassing the suspended LMOP. suspending a lithium-metal-oxide-powder (LMOP) within a gaseous mixture; incrementally heating the suspended LMOP to a holding temperature of between 400 and 800 degrees Celsius such that the LMOP reaches the holding temperature; maintaining the LMOP at the holding temperature for a time period in order for the gaseous mixture and the LMOP to react to form a lithium-metal nitride powder (LMNP); and degassing the suspended LMOP.
A method for a first network apparatus implementing a RESTful architecture in a communication network , the method comprising the operations of: receiving at the first network apparatus , from a second network apparatus via the communication network, a request to create at least one application-specific instance of an object, wherein the request comprises: at least one object description, wherein the at least one object description is application-specific and is defined by a first entity executing on the second network apparatus; and creating by the first network apparatus the at least one application-specific instance of an object based on the at least one object description received from the second network apparatus, wherein the application-specific instance of an object is discoverable by other entities implemented on other network apparatuses connected to the network. at least one object description, wherein the at least one object description is application-specific and is defined by a first entity executing on the second network apparatus; and creating by the first network apparatus the at least one application-specific instance of an object based on the at least one object description received from the second network apparatus, wherein the application-specific instance of an object is discoverable by other entities implemented on other network apparatuses connected to the network.
A method of wireless communication performed by a user equipment, UE , comprising: determining that a reselection timer has an expiration time that is to extend an active period of a discontinuous reception, DRX, cycle; determining whether to extend the active period based at least in part on at least one of a set of serving cell measurements or a duration that the expiration time is to extend the active period ; and selectively extending the active period or entering a sleep mode without extending the active period based at least in part on determining whether to extend the active period . determining that a reselection timer has an expiration time that is to extend an active period of a discontinuous reception, DRX, cycle; determining whether to extend the active period based at least in part on at least one of a set of serving cell measurements or a duration that the expiration time is to extend the active period ; and selectively extending the active period or entering a sleep mode without extending the active period based at least in part on determining whether to extend the active period .