mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: actuating a cantilevered optical fiber by mechanically deforming a piezoelectric actuator; and detecting an electrical signal generated by the piezoelectric actuator as a result of mechanical deformation of the piezoelectric actuator; wherein actuating the cantilevered optical fiber comprises applying actuator drive signals to the piezoelectric actuator, and further comprising decoupling the actuator drive signals from the piezoelectric actuator while the electrical signal is detected. actuating a cantilevered optical fiber by mechanically deforming a piezoelectric actuator; and detecting an electrical signal generated by the piezoelectric actuator as a result of mechanical deformation of the piezoelectric actuator; wherein actuating the cantilevered optical fiber comprises applying actuator drive signals to the piezoelectric actuator, and further comprising decoupling the actuator drive signals from the piezoelectric actuator while the electrical signal is detected.
A self-moving robot, comprising a self-moving module and at least one of a plurality of interchangeable working modules connected to the self-moving module, wherein the self-moving robot comprises a control unit, a first energy unit, a first walking unit and a first interface unit, and the control unit executes a predetermined command to control the self-moving robot to operate; the first energy unit comprises a chargeable battery, providing energy for the self-moving module or the self-moving robot; the first walking unit assists the self-moving module in walking; the working module comprises a first working unit, a second walking unit and a second interface unit, the first working unit executes a specific type of work, and the second walking unit assists the working module in walking; the first interface unit and the second interface unit can be correspondingly matched and connected to connect the working module onto the self-moving module, the self-moving robot is characterized in that the working module further comprises a second energy unit, the second energy unit comprises a chargeable battery, and the second energy unit provides energy for the working module or the self-moving robot.
A leading edge structure for wing structures and empennages, comprising an outer shell suitable to define a front portion of a airfoil, said outer shell being formed by a bent plate of a fiber-reinforced thermoplastic resin composite material, the leading edge structure further comprising: an inner shell having a convex profile being oriented in the same direction as the profile of the outer shell, which is formed by a bent plate of a fiber-reinforced thermoplastic resin composite material and is bonded to the outer shell at the longitudinal edges thereof, and at least one transversally extending reinforcing element connecting the outer shell and the inner shell to each other, formed by at least one piece of a fiber-reinforced resin composite material and fixed to the outer shell and inner shell; characterized in that the structure comprises several reinforcing elements in form of transversally extending walls spaced from each other and connecting the outer shell and the inner shell. an inner shell having a convex profile being oriented in the same direction as the profile of the outer shell, which is formed by a bent plate of a fiber-reinforced thermoplastic resin composite material and is bonded to the outer shell at the longitudinal edges thereof, and at least one transversally extending reinforcing element connecting the outer shell and the inner shell to each other, formed by at least one piece of a fiber-reinforced resin composite material and fixed to the outer shell and inner shell; characterized in that the structure comprises several reinforcing elements in form of transversally extending walls spaced from each other and connecting the outer shell and the inner shell.
A wind energy plant for offshore use with: an equipment platform (3, 6) arranged on a tower above a surface of the sea, characterized by at least one rescue means designed in the form of a rescue capsule, a life raft or a rescue basket for service staff working on the equipment platform (3, 6), which rescue means is intended for conveying the service staff to the surface of the sea in event of a dangerous situation and prior to the dangerous situation, if no service staff are present at the wind energy plant, is arranged on the wind energy plant and is a permanent component of the wind energy plant by a mechanical connection until the dangerous situation. an equipment platform (3, 6) arranged on a tower above a surface of the sea, characterized by at least one rescue means designed in the form of a rescue capsule, a life raft or a rescue basket for service staff working on the equipment platform (3, 6), which rescue means is intended for conveying the service staff to the surface of the sea in event of a dangerous situation and prior to the dangerous situation, if no service staff are present at the wind energy plant, is arranged on the wind energy plant and is a permanent component of the wind energy plant by a mechanical connection until the dangerous situation.
A refrigeration apparatus, comprising: a refrigeration circuit which includes a first refrigeration circuit and a second refrigeration circuit in which refrigerants circulate independently of each other, an evaporator (38, 618, 628) in each of the first refrigeration circuit and the second refrigeration circuit, and a cascade condenser (616, 626) in each of the first refrigeration circuit and the second refrigeration circuit, wherein in each cascade condenser (616, 626), in an outer pipe (616a, 626a), the liquid-phase refrigerant evaporates to cool the gas-phase refrigerant flowing through an inner pipe (616b, 626b), wherein the refrigeration apparatus further comprises a heat insulating board disposed between the two evaporators (38, 618, 628) and the two cascade condensers (616, 626), and a heat insulating material packed in spaces on the upper, lower, left and right sides of the heat insulation board.
A majority gate device comprising: a free ferromagnetic layer comprising 3N input zones (121, 122, 123) and one polygon output zone having 3N sides, each input zone adjoining the output zone at a side and being positioned around the output zone according to a 3N-fold rotational symmetry with N being an integer larger than 0, whereby the input zones are spaced apart from one another by the output zone; - each input zone being magnetically coupled to a corresponding input control (1181, 1182, 1183), the input control for controlling the magnetization state of the corresponding input zone;and - an output sensor magnetically coupled to the output zone, the output sensor for sensing the magnetization state of the output zone. a free ferromagnetic layer comprising 3N input zones (121, 122, 123) and one polygon output zone having 3N sides, each input zone adjoining the output zone at a side and being positioned around the output zone according to a 3N-fold rotational symmetry with N being an integer larger than 0, whereby the input zones are spaced apart from one another by the output zone; - each input zone being magnetically coupled to a corresponding input control (1181, 1182, 1183), the input control for controlling the magnetization state of the corresponding input zone;and - an output sensor magnetically coupled to the output zone, the output sensor for sensing the magnetization state of the output zone. - each input zone being magnetically coupled to a corresponding input control (1181, 1182, 1183), the input control for controlling the magnetization state of the corresponding input zone;and - an output sensor magnetically coupled to the output zone, the output sensor for sensing the magnetization state of the output zone.
Rotor for a reluctance motor, wherein the rotor has a laminate stack with layers, of which several taken together have in each case flux-conducting sections, formed by a magnetically conductive rotor plate, which extends transversely relative to the relevant q-axis, wherein the flux-conducting sections are separated from each other by non-magnetic flux barrier regions, wherein in several or all of the flux barrier regions of the layers there is arranged an electrically conductive and non-ferromagnetic filler material, by which the flux barrier regions of neighbouring layers are electrically connected, so that cage bars, of a rotor cage of the rotor, which extend axially parallel to or skewed to the axis of rotation, are formed by the filler material in the flux barrier regions, and wherein, on each of the axially opposite ends of the laminate stack, there is arranged an electrically conductive and non-ferromagnetic disk, by which the cage bars are electrically connected and thereby the disks form in each case a short-circuit ring of the rotor cage, characterised in that the rotor has at least one intermediate disk formed from the filler material, this being arranged between the layers.
The tattooable element for decorating fashion or decorative objects, comprising a polymer layer suitable for tattooing characterized in that a reinforcing element made of a fabric or fibreglass is fixed to the polymer layer by means of glue or fusing.
A photonic crystal maser comprising: (a) a dielectric body comprising: an array of cavities ordered periodically to define a photonic crystal structure in the dielectric body, a region in the array of cavities defining a defect in the photonic crystal structure, and an elongated slot through the region extending from a slot opening in a surface of the dielectric body at least partially through the dielectric body, wherein the array of cavities and the elongated slot define a waveguide having a waveguide mode; (b) an optical window covering the elongated slot and having a window surface bonded to the surface of the dielectric body to form a seal about the slot opening; (c) a vapor or a source of the vapor in the elongated slot, the vapor comprising: one or more input electronic transitions; and an output electronic transition coupled to the one or more input electronic transitions and operable to emit a target radiofrequency, RF, electromagnetic radiation, the output electronic transition resonant with the waveguide mode of the waveguide; and (d) a laser configured to generate an optical signal capable of exciting the one or more input electronic transitions of the vapor. (a) a dielectric body comprising: an array of cavities ordered periodically to define a photonic crystal structure in the dielectric body, a region in the array of cavities defining a defect in the photonic crystal structure, and an elongated slot through the region extending from a slot opening in a surface of the dielectric body at least partially through the dielectric body, wherein the array of cavities and the elongated slot define a waveguide having a waveguide mode; an array of cavities ordered periodically to define a photonic crystal structure in the dielectric body, a region in the array of cavities defining a defect in the photonic crystal structure, and an elongated slot through the region extending from a slot opening in a surface of the dielectric body at least partially through the dielectric body, wherein the array of cavities and the elongated slot define a waveguide having a waveguide mode; (b) an optical window covering the elongated slot and having a window surface bonded to the surface of the dielectric body to form a seal about the slot opening; (c) a vapor or a source of the vapor in the elongated slot, the vapor comprising: one or more input electronic transitions; and an output electronic transition coupled to the one or more input electronic transitions and operable to emit a target radiofrequency, RF, electromagnetic radiation, the output electronic transition resonant with the waveguide mode of the waveguide; and one or more input electronic transitions; and an output electronic transition coupled to the one or more input electronic transitions and operable to emit a target radiofrequency, RF, electromagnetic radiation, the output electronic transition resonant with the waveguide mode of the waveguide; and (d) a laser configured to generate an optical signal capable of exciting the one or more input electronic transitions of the vapor.
Spar cap for a wind turbine blade of a wind turbine, the spar cap comprising at least two stacks (41.1, 41.2, 41.3) arranged in a longitudinal direction of the spar cap, wherein the at least two stacks (41.1, 41.2, 41.3) are arranged adjacent to one another in a width direction of the spar cap and each of the at least two stacks (41.1, 41.2, 41.3) comprises multiple elongate beams stacked on top of one another in a height direction of the spar cap, the height direction being transverse to the longitudinal direction and the width direction, characterized in that the spar cap further comprises a gap limiter (43.1, 43.2) comprising a first wedge element (44.1), a second wedge element (44.2) and a limit strip, whereby the limit strip is a precasted layer material, wherein the first wedge element (44.1) is arranged adjacent to a first outer stack (41.1) and the second wedge element (44.2) is arranged adjacent to a second outer stack (41.3), wherein the first outer stack (41.1) and the second outer stack (41.3) are of the at least two stacks (41.1, 41.2, 41.3) and are located opposite to one another in the width direction, and wherein the first wedge element (44.1) is connected to the second wedge element (44.2) by means of the limit strip.
A laser oscillator support table for supporting a laser oscillator, the laser oscillator support table comprising: a base; a fixed plate supported in a Z-axis direction over the base, the Z-axis direction being a direction parallel to a vertical direction, and being characterized by: the fixed plate being supported over the base with intermediary of Z-axis direction movement means for moving the fixed plate in the Z-axis direction; a Y-axis direction moving plate mounted on the fixed plate movably in a Y-axis direction orthogonal to an X-axis direction when an optical path direction of a laser beam emitted from the laser oscillator supported by the laser oscillator support table is defined as the X-axis direction; a rotating plate that is mounted on the Y-axis direction moving plate rotatably around a rotation center pin fixed to the Y-axis direction moving plate and is configured to support the laser oscillator; a Y-axis direction movement unit that moves the Y-axis direction moving plate in the Y-axis direction; and a rotational movement unit that rotates the rotating plate around the rotation center pin in a plane parallel to a plane formed by the X-axis direction and the Y-axis direction; wherein the Z-axis direction movement means includes at least three adjusting units configured to be capable of each independently moving in the Z-axis direction, such that a tilt of the laser oscillator support table with respect to an XY-plane is allowed to be adjusted by adjusting a height of each of the adjusting units. a base; a fixed plate supported in a Z-axis direction over the base, the Z-axis direction being a direction parallel to a vertical direction, and the fixed plate being supported over the base with intermediary of Z-axis direction movement means for moving the fixed plate in the Z-axis direction; a Y-axis direction moving plate mounted on the fixed plate movably in a Y-axis direction orthogonal to an X-axis direction when an optical path direction of a laser beam emitted from the laser oscillator supported by the laser oscillator support table is defined as the X-axis direction; a rotating plate that is mounted on the Y-axis direction moving plate rotatably around a rotation center pin fixed to the Y-axis direction moving plate and is configured to support the laser oscillator; a Y-axis direction movement unit that moves the Y-axis direction moving plate in the Y-axis direction; and a rotational movement unit that rotates the rotating plate around the rotation center pin in a plane parallel to a plane formed by the X-axis direction and the Y-axis direction; wherein the Z-axis direction movement means includes at least three adjusting units configured to be capable of each independently moving in the Z-axis direction, such that a tilt of the laser oscillator support table with respect to an XY-plane is allowed to be adjusted by adjusting a height of each of the adjusting units.
A wireless communication method, the method comprising receiving, by a terminal device, a first control channel, the first control channel corresponding to a first shared channel; and not monitoring, by the terminal device, a control channel candidate at any time unit between a first time unit and a second time unit; wherein the first time unit is determined according to at least one of n, n+k and n+m, the second time unit is determined according to at least one of n, n+k and n+m; n denotes a time unit where the first control channel ends, n+k denotes a time unit where transmission of the first shared channel starts, and n+m denotes a time unit where the transmission of the first shared channel ends, characterised in that at least one first downlink time unit that overlaps wholly or partially with a time unit determined based on the at least one of n, n+k and n+m is comprised in a downlink timing of the terminal device, the at least one first downlink time unit comprising the first time unit. receiving, by a terminal device, a first control channel, the first control channel corresponding to a first shared channel; and not monitoring, by the terminal device, a control channel candidate at any time unit between a first time unit and a second time unit; wherein the first time unit is determined according to at least one of n, n+k and n+m, the second time unit is determined according to at least one of n, n+k and n+m; n denotes a time unit where the first control channel ends, n+k denotes a time unit where transmission of the first shared channel starts, and n+m denotes a time unit where the transmission of the first shared channel ends, characterised in that at least one first downlink time unit that overlaps wholly or partially with a time unit determined based on the at least one of n, n+k and n+m is comprised in a downlink timing of the terminal device, the at least one first downlink time unit comprising the first time unit.
A method for charging-discharging interaction, comprising: transmitting, by a charging-discharging device, a vehicle-to-grid (V2G) function confirmation message to a battery management system of a target vehicle; transmitting, by the charging-discharging device, a first indication message to a cloud server to indicate that the target vehicle is V2G-disabled, when no V2G function feedback message fed back by the battery management system is received within a preset period of time after transmitting the V2G function confirmation message; performing, by the charging-discharging device, a non-V2G charging for the target vehicle, in response to a non-V2G charging instruction received from the cloud server, wherein the non-V2G charging instruction is transmitted by the cloud server in response to the first indication message or a non-V2G charging mode selection instruction from a terminal device communicatively connected with the cloud server. transmitting, by a charging-discharging device, a vehicle-to-grid (V2G) function confirmation message to a battery management system of a target vehicle; transmitting, by the charging-discharging device, a first indication message to a cloud server to indicate that the target vehicle is V2G-disabled, when no V2G function feedback message fed back by the battery management system is received within a preset period of time after transmitting the V2G function confirmation message; performing, by the charging-discharging device, a non-V2G charging for the target vehicle, in response to a non-V2G charging instruction received from the cloud server, wherein the non-V2G charging instruction is transmitted by the cloud server in response to the first indication message or a non-V2G charging mode selection instruction from a terminal device communicatively connected with the cloud server.
Silica particles having a particle size of from 3 to 15 μm, an oil absorption value of greater than 100 cc/100g, and a Pellicle Cleaning Ratio value at 20% silica loading of at least 85 and a Perspex Abrasion Value of from 3.3 to 8.7 and an Einlehner abrasion value ranging from 1.8 to 8.1 mg lost/100 k rev..
A brake drum for a drum brake for a vehicle, said vehicle having a longitudinal centre plane extending along a longitudinal direction and a vertical direction and separating said vehicle into a first and a second longitudinal half, said longitudinal direction extending in a direction parallel to the intended direction of travel of said vehicle, said brake drum comprising a braking surface adapted to receive at least one brake shoe of said drum brake, said braking surface having a circumferential extension in a circumferential direction and an axial extension in an axial direction, said brake drum further comprising an outer surface at least partially enclosing said braking surface, said brake drum further comprising a cooling arrangement, comprising a set of cooling conduits (34, 36, 38) located between said braking surface and said outer surface and extending at least partially in said axial direction, said brake drum comprising an inner axial cross-section and an outer axial cross-section which are located within the axial extension of said braking surface, wherein when said brake drum is mounted to said vehicle, said inner axial cross-section is located closer to said centre plane than said outer axial cross-section, as seen in said axial direction, said cooling arrangement also extending through each one of said inner axial cross-section and said outer axial cross-section, the material of said brake drum located radially between said set of cooling conduits (34, 36, 38) and said braking surface at said inner axial cross-section having an inner axial aggregate thermal conductance, the material of said brake drum located radially between said set of cooling conduits (34, 36, 38) and said braking surface at said outer axial cross-section having an outer axial aggregate thermal conductance, said inner axial aggregate thermal conductance being different from said outer axial aggregate thermal conductance characterized in that at least one cooling conduit of said set of cooling conduits (34, 36, 38) extends axially over at least 90%, preferably over 100%, of the axial extension of said braking surface.
An overcoat composition, comprising: at least one gellant; at least one monomer; a curable wax; and a photoinitiator package, wherein the overcoat composition is curable upon exposure to radiation and the overcoat composition is colorless and does not yellow upon curing, and wherein the overcoat composition is free of a colorant. at least one gellant; at least one monomer; a curable wax; and a photoinitiator package, wherein the overcoat composition is curable upon exposure to radiation and the overcoat composition is colorless and does not yellow upon curing, and wherein the overcoat composition is free of a colorant.