mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-rotor unmanned aerial vehicle (UAV) , comprising: a fuselage ; and a plurality of rotor mechanisms disposed on the fuselage , each rotor mechanism including a rotor , wherein the multi-rotor UAV further comprises a plurality of connection mechanisms disposed on the fuselage , the number of the connection mechanisms being in one-to-one correspondence with the number of the rotor mechanisms , and each rotor mechanism being movably connected to the fuselage through a corresponding connection mechanism ; wherein at least one of the connection mechanisms comprises a second connection assembly movably coupled to the fuselage and a third connection assembly movably coupled to the second connection assembly; the second connection assembly is configured to be rotated about a second axial line (B), the second axial line being inclined at a preconfigured angle from a yaw axis of the multi-rotor UAV ; and the third connection assembly is connected to one of said plurality of rotor mechanisms and is configured to be rotated about a third axial line (C); and the plurality of rotor mechanisms are configured to be rotated with respect to the corresponding connection mechanisms , and capable of being overlapped with each other to form a rotor mechanism assembly ; wherein the multi-rotor UAV is characterized in that the plurality of rotor mechanisms are configured to be overlapped with each other to form a concentric rotor mechanism assembly . a fuselage ; and a plurality of rotor mechanisms disposed on the fuselage , each rotor mechanism including a rotor , wherein the multi-rotor UAV further comprises a plurality of connection mechanisms disposed on the fuselage , the number of the connection mechanisms being in one-to-one correspondence with the number of the rotor mechanisms , and each rotor mechanism being movably connected to the fuselage through a corresponding connection mechanism ; wherein at least one of the connection mechanisms comprises a second connection assembly movably coupled to the fuselage and a third connection assembly movably coupled to the second connection assembly; the second connection assembly is configured to be rotated about a second axial line (B), the second axial line being inclined at a preconfigured angle from a yaw axis of the multi-rotor UAV ; and the third connection assembly is connected to one of said plurality of rotor mechanisms and is configured to be rotated about a third axial line (C); and the plurality of rotor mechanisms are configured to be rotated with respect to the corresponding connection mechanisms , and capable of being overlapped with each other to form a rotor mechanism assembly ; wherein the multi-rotor UAV is characterized in that the plurality of rotor mechanisms are configured to be overlapped with each other to form a concentric rotor mechanism assembly .
A communication control device for controlling communication of an in-vehicle communication device which is communicable with a mobile communication device , the communication control device comprising: a travel plan creation unit configured to create or acquire a travel plan of a vehicle equipped with the in-vehicle communication device and create a communication plan to switch at least one of a communication amount and a communication frequency between the in-vehicle communication device and the mobile communication device at switching time of a travel state of the travel plan according to a mode change of the travel state, wherein the vehicle is a hybrid type vehicle including an engine , a chargeable and dischargeable in-vehicle battery , and a rotating electric machine (30; 40) driven by power of the in-vehicle battery , wherein the travel plan creation unit is configured to create the travel plan by setting either an EV mode in which the power of the in-vehicle battery is used as a main power source or an HV mode in which the engine is used as the main power source as a travel mode to be used depending on a travel section, and wherein the switching time is switch time of the set travel mode. a travel plan creation unit configured to create or acquire a travel plan of a vehicle equipped with the in-vehicle communication device and create a communication plan to switch at least one of a communication amount and a communication frequency between the in-vehicle communication device and the mobile communication device at switching time of a travel state of the travel plan according to a mode change of the travel state, wherein the vehicle is a hybrid type vehicle including an engine , a chargeable and dischargeable in-vehicle battery , and a rotating electric machine (30; 40) driven by power of the in-vehicle battery , wherein the travel plan creation unit is configured to create the travel plan by setting either an EV mode in which the power of the in-vehicle battery is used as a main power source or an HV mode in which the engine is used as the main power source as a travel mode to be used depending on a travel section, and wherein the switching time is switch time of the set travel mode.
A heat shield assembly for a gas turbine engine comprising: a first heat shield ply assembly defined about an axis; and a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly , characterised by further comprising: a band clamp to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly , wherein the first heat shield ply assembly is an inner heat shield and the second heat shield ply assembly is an outer heat shield, the first heat shield ply assembly is formed of a multiple of segments , and the second heat shield ply assembly is formed of a multiple of segments . a first heat shield ply assembly defined about an axis; and a second heat shield ply assembly defined about the axis, the second heat shield ply assembly receivable at least partially over the first heat shield assembly , characterised by further comprising: a band clamp to circumferentially retain the first heat shield ply assembly and the second heat shield ply assembly , wherein the first heat shield ply assembly is an inner heat shield and the second heat shield ply assembly is an outer heat shield, the first heat shield ply assembly is formed of a multiple of segments , and the second heat shield ply assembly is formed of a multiple of segments .
Method for the additive manufacture of a three-dimensional object comprising or forming a structured cosmetic composition, the method comprising the following steps: (a) heating at least one cosmetic material containing at least one meltable structuring agent in order to melt the or each structuring agent, the or each structuring agent being a compound able to increase the viscosity of the composition incorporating it; (b) depositing a layer comprising one or a plurality of cosmetic materials heated in step (a), the or each structuring agent contained in the cosmetic material(s) being deposited in the molten state; (c) at least partially solidifying the layer by cooling the or each cosmetic material to a temperature below that of the or each cosmetic material in step (b); (d) depositing, on the previous layer , an additional layer comprising one or a plurality of cosmetic materials heated in step (a), the or each structuring agent contained in the cosmetic material(s) being deposited in the molten state; (e) at least partially solidifying the additional layer by cooling the or each cosmetic material to a temperature below that of the or each cosmetic material in step (b); (f) repeating steps (d) to (e) until a three-dimensional object comprising or forming a structured cosmetic composition is formed, the cosmetic composition comprised in the three-dimensional object or forming the three-dimensional object being recoverable after solidifying, in that at least a portion of the cosmetic composition can be applied on a body surface of the user and that the composition is capable of being at least partially detached from the three-dimensional object in order to remain on the body surface, wherein the density of the structured cosmetic composition, measured at the melting point thereof according to ASTM D4164, is between 0.7 and 1, particularly between 0.8 and 0.9. (a) heating at least one cosmetic material containing at least one meltable structuring agent in order to melt the or each structuring agent, the or each structuring agent being a compound able to increase the viscosity of the composition incorporating it; (b) depositing a layer comprising one or a plurality of cosmetic materials heated in step (a), the or each structuring agent contained in the cosmetic material(s) being deposited in the molten state; (c) at least partially solidifying the layer by cooling the or each cosmetic material to a temperature below that of the or each cosmetic material in step (b); (d) depositing, on the previous layer , an additional layer comprising one or a plurality of cosmetic materials heated in step (a), the or each structuring agent contained in the cosmetic material(s) being deposited in the molten state; (e) at least partially solidifying the additional layer by cooling the or each cosmetic material to a temperature below that of the or each cosmetic material in step (b); (f) repeating steps (d) to (e) until a three-dimensional object comprising or forming a structured cosmetic composition is formed,
A positioning device (100, 100', 100", 100"') for positioning and/or fixing a plate to a bone, comprising: - a guiding bow , wherein the guiding bow is designed at least in one section as a push-in section to be inserted into a sleeve of a push-in sleeves arrangement or comprises such a push-in section ; wherein the guiding bow comprises an adjusting device , the adjusting device comprising at least one targeting device , and wherein the targeting device is designed to at least partially receive an interlocking device or an instrument for acting on the interlocking device ; characterized in that the positioning device (100, 100', 100", 100"') further includes a push-in sleeves arrangement comprising a plurality of sleeves for insertion of the push-in section . - a guiding bow , wherein the guiding bow is designed at least in one section as a push-in section to be inserted into a sleeve of a push-in sleeves arrangement or comprises such a push-in section ;
A syringe adapter (300; 400) for removably holding a syringe having a cylinder and a piston , the syringe adapter (300; 400) being mounted removably on an apparatus for operating the syringe , comprising: a flange receiver (330; 430) receiving a cylinder flange formed at a trailing end of the cylinder of the syringe to be held and matching a shape of the cylinder flange ; a flange lock mechanism (323; 423) locking the cylinder flange by rotation of the syringe received in the flange receiver (330; 430) about an axis of the cylinder ; an adapter lock mechanism locking the syringe adapter (300; 400) to the apparatus so as not to release lock to the apparatus in a state in which the cylinder flange of the syringe is received in the flange receiver (330; 430); and wherein the flange receiver (330; 430) has an arc-shaped portion having an inner circumferential surface with a radius of curvature substantially equal to a radius of curvature of an outer circumferential surface of the syringe flange and arm portions (322; 422) extending from both ends of the arc-shaped portion and provided on the arc-shaped portion ; grip portions are formed on the arm portions (322; 422); and part of an inner circumferential surface of the grip portion is formed on an extension of an arc shape of the inner circumferential surface of the arc-shaped portion ; characterized in that the adapter lock mechanism is provided on outer surfaces of the arm portions (322; 422) and the arm portions (322; 422) are provided to be elastically displaceable with respect to the arc-shaped portion . a flange receiver (330; 430) receiving a cylinder flange formed at a trailing end of the cylinder of the syringe to be held and matching a shape of the cylinder flange ; a flange lock mechanism (323; 423) locking the cylinder flange by rotation of the syringe received in the flange receiver (330; 430) about an axis of the cylinder ; an adapter lock mechanism locking the syringe adapter (300; 400) to the apparatus so as not to release lock to the apparatus in a state in which the cylinder flange of the syringe is received in the flange receiver (330; 430); and wherein the flange receiver (330; 430) has an arc-shaped portion having an inner circumferential surface with a radius of curvature substantially equal to a radius of curvature of an outer circumferential surface of the syringe flange and arm portions (322; 422) extending from both ends of the arc-shaped portion and provided on the arc-shaped portion ; grip portions are formed on the arm portions (322; 422); and part of an inner circumferential surface of the grip portion is formed on an extension of an arc shape of the inner circumferential surface of the arc-shaped portion ; characterized in that the adapter lock mechanism is provided on outer surfaces of the arm portions (322; 422) and the arm portions (322; 422) are provided to be elastically displaceable with respect to the arc-shaped portion .
A remotely operated vehicle (ROV) deployed buoy system , comprising: a. a remotely operated vehicle (ROV) cage ; b. a buoy container pivotally connected to the ROV cage; c. a surface buoy selectively releasably disposed at least partially within the buoy container; d. an electrical power generator disposed at least partially within the surface buoy;and e. an umbilical comprising an electrical power pathway operatively disposed intermediate the surface buoy and the ROV cage, a first connector operatively in communication with the electrical power generator and the electrical power pathway, and a second connector adapted to be connected to an ROV and to provide electrical power to the ROV from the electrical power generator, the second connector operatively in communication with the electrical power generator and the electrical power pathway. a. a remotely operated vehicle (ROV) cage ; b. a buoy container pivotally connected to the ROV cage; c. a surface buoy selectively releasably disposed at least partially within the buoy container; d. an electrical power generator disposed at least partially within the surface buoy;and e. an umbilical comprising an electrical power pathway operatively disposed intermediate the surface buoy and the ROV cage, a first connector operatively in communication with the electrical power generator and the electrical power pathway, and a second connector adapted to be connected to an ROV and to provide electrical power to the ROV from the electrical power generator, the second connector operatively in communication with the electrical power generator and the electrical power pathway.
A computer-implemented method for processing seismic data, comprising: receiving seismic data representing a subsurface volume; determining one or more points of conversion between P and S waves of the seismic data using a subsurface model with Vp and Vs velocities, in combination with ray tracing based at least partially on a path of energy traveling from a source to a receiver used to generate and collect the seismic data; determining , for the seismic data, analysis coordinates as a function of time, wherein one or more of the analysis coordinates vary in position over time, the analysis coordinates include the one or more conversion points, azimuth and absolute offset; performing at least one of an interpolation or regularization process on the seismic data based at least partially on the analysis coordinates; and outputting a result of the at least one of the interpolation or regularization process. receiving seismic data representing a subsurface volume; determining one or more points of conversion between P and S waves of the seismic data using a subsurface model with Vp and Vs velocities, in combination with ray tracing based at least partially on a path of energy traveling from a source to a receiver used to generate and collect the seismic data; determining , for the seismic data, analysis coordinates as a function of time, wherein one or more of the analysis coordinates vary in position over time, the analysis coordinates include the one or more conversion points, azimuth and absolute offset; performing at least one of an interpolation or regularization process on the seismic data based at least partially on the analysis coordinates; and outputting a result of the at least one of the interpolation or regularization process.
A method, in a wireless device operating in a wireless communication network, the method comprising: receiving , from a source node , a conditional handover command, the conditional handover command including a conditional handover configuration and a triggering condition for execution of handover to a target cell or target beam; starting monitoring the triggering condition; characterized by performing: if the triggering condition for the target cell is met before completion of the conditional handover configuration, skipping a transmission of the conditional handover complete message to the source node, and immediately executing the handover by applying the configuration in the conditional handover command; else, if the triggering condition for the target cell is not met before completion of the conditional handover configuration, sending to the source node a conditional handover complete message at completion of the configuration. receiving , from a source node , a conditional handover command, the conditional handover command including a conditional handover configuration and a triggering condition for execution of handover to a target cell or target beam; starting monitoring the triggering condition; characterized by performing: if the triggering condition for the target cell is met before completion of the conditional handover configuration, skipping a transmission of the conditional handover complete message to the source node, and immediately executing the handover by applying the configuration in the conditional handover command; else, if the triggering condition for the target cell is not met before completion of the conditional handover configuration, sending to the source node a conditional handover complete message at completion of the configuration. if the triggering condition for the target cell is met before completion of the conditional handover configuration, skipping a transmission of the conditional handover complete message to the source node, and immediately executing the handover by applying the configuration in the conditional handover command; else, if the triggering condition for the target cell is not met before completion of the conditional handover configuration, sending to the source node a conditional handover complete message at completion of the configuration.
A doped nickelate-containing compound comprising: A a M 1 v M 2 w M 3 x M 4 y M 5 z O 2-c wherein A comprises either sodium or a mixed alkali metal in which sodium is the major constituent; M 1 is nickel in oxidation state greater than 0 to less than or equal to 4+, M 2 comprises a metal in oxidation state greater than 0 to less than or equal to 4+, M 3 comprises a metal in oxidation state 2+, M 4 comprises a metal in oxidation state greater than 0 to less than or equal to 4+, and M 5 comprises a metal in oxidation state 3+ wherein 0 ≤ a < 1, v > 0, at least one of w and y is > 0 x ≥ 0, z ≥ 0 0 < c ≤ 0.1, where (a, v, w, x, y, z and c) are chosen to maintain electroneutrality. A comprises either sodium or a mixed alkali metal in which sodium is the major constituent; M 1 is nickel in oxidation state greater than 0 to less than or equal to 4+, M 2 comprises a metal in oxidation state greater than 0 to less than or equal to 4+, M 3 comprises a metal in oxidation state 2+, M 4 comprises a metal in oxidation state greater than 0 to less than or equal to 4+, and M 5 comprises a metal in oxidation state 3+ v > 0, at least one of w and y is > 0 x ≥ 0, z ≥ 0 0 < c ≤ 0.1, where (a, v, w, x, y, z and c) are chosen to maintain electroneutrality.
An HVAC system for providing conditioned air to a first closed space , wherein at least a portion of the system is disposed within a second closed space , the system comprising: an HVAC unit comprising: a return air duct , a blower fluidly coupled to the return air duct for pulling air through the return air duct, a conditioning compartment fluidly coupled to the blower for receiving air therefrom to be treated, wherein the conditioning compartment is formed with a sampling port ; a damper for selectively covering and uncovering the sampling port in response to a damper-control signal; a cooling unit fluidly coupled to the conditioning compartment for selectively cooling air therein, wherein the cooling unit comprises a flammable refrigerant, and a delivery duct fluidly coupled to the conditioning compartment for discharging treated air from the conditioning compartment into the first closed space; a flammable-component detector disposed within the second closed space and positioned proximate the HVAC unit such that any flammable refrigerant within the conditioning compartment would flow through the sampling port when the damper is open and onto the flammable-component detector, wherein the flammable-component detector is operable to produce a detection signal; and a processing unit comprising at least one processor and at least one memory , the processing unit communicatively coupled to the flammable-component detector for receiving the detection signal therefrom and coupled to the damper for selectively providing the damper-control signal. a return air duct , a blower fluidly coupled to the return air duct for pulling air through the return air duct, a conditioning compartment fluidly coupled to the blower for receiving air therefrom to be treated, wherein the conditioning compartment is formed with a sampling port ; a damper for selectively covering and uncovering the sampling port in response to a damper-control signal; a cooling unit fluidly coupled to the conditioning compartment for selectively cooling air therein, wherein the cooling unit comprises a flammable refrigerant, and a delivery duct fluidly coupled to the conditioning compartment for discharging treated air from the conditioning compartment into the first closed space; a flammable-component detector disposed within the second closed space and positioned proximate the HVAC unit such that any flammable refrigerant within the conditioning compartment would flow through the sampling port when the damper is open and onto the flammable-component detector, wherein the flammable-component detector is operable to produce a detection signal; and a processing unit comprising at least one processor and at least one memory , the processing unit communicatively coupled to the flammable-component detector for receiving the detection signal therefrom and coupled to the damper for selectively providing the damper-control signal.
A component consisting of: - a substrate at least a portion of which adjacent to a surface (S) of the substrate is made of a material comprising silicon; - a bond coat located on the surface (S) of the substrate and comprising silicon, - an environmental barrier which comprises an outer layer of ceramic material covering the bond coat , characterized in that said environmental barrier further comprises a self-healing inner layer located between the bond coat and the outer layer , said inner layer comprising a matrix in which silico-forming particles are dispersed, these particles being capable of generating a healing phase for cracks in the matrix in the presence of oxygen, the inner layer comprising a volume charge rate of the particles of between 20% and 40%. - a substrate at least a portion of which adjacent to a surface (S) of the substrate is made of a material comprising silicon; - a bond coat located on the surface (S) of the substrate and comprising silicon, - an environmental barrier which comprises an outer layer of ceramic material covering the bond coat ,