mhurhangee/ep-ind-claims huggingface dataset:
A power plug storage base for storing at least two detachable power plugs, each of the detachable plugs comprising a plug body and a plugging structure connected to the plug body, the plug storage base comprising a connecting body and at least two storage structures disposed on the connecting body, wherein each of the storage structures comprises a mounting recess provided in the connecting body; the mounting recess is provided along an extension direction; the mounting recess is configured to store the plugging structure; and a recess wall of the mounting recess is provided with a first slide connection structure for slide connection with the plugging structure, the connecting body has a first connecting surface, a second connecting surface and a third connecting surface, wherein the second connecting surface and the third connecting surface are opposite to each other and connected by the first connecting surface, each of the storage structures further comprises an accommodating recess provided in the first connecting surface and configured to accommodate the plug body, and the mounting recess is provided in the recess wall of the accommodating recess and has an opening on the first connecting surface; and characterized in that the accommodating recess of each of the storage structures has an opening on each of the second connecting surface and the third connecting surface.
An electronic device comprising: a housing; and an acoustic device configured to generate vibration sound that is to be transmitted by vibrating a part of a human body, wherein the acoustic device includes: a panel configured to be joined to the housing; and a piezoelectric element configured to be joined to the panel for vibrating the panel; wherein the panel is bent such that a portion of the panel directly above the piezoelectric element protrudes relative to neighboring portions of the panel in a long side direction of the piezoelectric element; characterized by a vibration adjusting unit configured to be joined to the panel and vibrated together with the panel by the piezoelectric element, wherein the acoustic device has a resonance frequency within a frequency range in which the panel vibrates to generate sound to be transmitted to the part of the human body in contact with the panel; and the vibration adjusting unit comprises a display unit configured to display predetermined information. a housing; and an acoustic device configured to generate vibration sound that is to be transmitted by vibrating a part of a human body, wherein the acoustic device includes: a panel configured to be joined to the housing; and a piezoelectric element configured to be joined to the panel for vibrating the panel; wherein the panel is bent such that a portion of the panel directly above the piezoelectric element protrudes relative to neighboring portions of the panel in a long side direction of the piezoelectric element; characterized by a vibration adjusting unit configured to be joined to the panel and vibrated together with the panel by the piezoelectric element, wherein the acoustic device has a resonance frequency within a frequency range in which the panel vibrates to generate sound to be transmitted to the part of the human body in contact with the panel; and a panel configured to be joined to the housing; and a piezoelectric element configured to be joined to the panel for vibrating the panel; wherein the panel is bent such that a portion of the panel directly above the piezoelectric element protrudes relative to neighboring portions of the panel in a long side direction of the piezoelectric element; characterized by a vibration adjusting unit configured to be joined to the panel and vibrated together with the panel by the piezoelectric element, wherein the acoustic device has a resonance frequency within a frequency range in which the panel vibrates to generate sound to be transmitted to the part of the human body in contact with the panel; and the vibration adjusting unit comprises a display unit configured to display predetermined information.
A method of modifying graphics commands representative of a visual tree, wherein the visual tree is a representation of graphics or an image, wherein the graphics or image is representative of the graphics commands, the method comprising: receiving, by a core, the graphics commands from a framework, wherein the core creates the visual tree, wherein the visual tree comprises visual objects (200, 200, 200, 200) and resources (202, 204, 206), the resources describing how to draw the visual objects; sending data packets that are part of a graphics stream over a channel, wherein the data packets represent the visual objects and the resources of the visual tree, wherein the channel allows communication between the core and a composition engine; opening, by an application, the graphics stream that is being passed through the channel; modifying, by the application, the graphics stream into a modified graphics stream; and passing the modified graphics stream to the composition engine that creates a modified composition tree based on the visual tree and the modification. receiving, by a core, the graphics commands from a framework, wherein the core creates the visual tree, wherein the visual tree comprises visual objects (200, 200, 200, 200) and resources (202, 204, 206), the resources describing how to draw the visual objects; sending data packets that are part of a graphics stream over a channel, wherein the data packets represent the visual objects and the resources of the visual tree, wherein the channel allows communication between the core and a composition engine; opening, by an application, the graphics stream that is being passed through the channel; modifying, by the application, the graphics stream into a modified graphics stream; and passing the modified graphics stream to the composition engine that creates a modified composition tree based on the visual tree and the modification.
A basal culture medium, comprising: at least 9 proteinogenic amino acids; one or more vitamins; one or more inorganic ions; glucose; and at least 10 small organic compounds selected from 4-hydroxyproline, acetylglycine, alpha-aminobutyrate, betaine, carnitine, citrulline, ornithine, taurine, 2-hydroxybutyrate, 3-hydroxybutyrate, acetate, citrate, formate, lactate, malonate, pyruvate, succinate, acetone, creatine, creatinine, glutathione, glycerol, urea, galactose, fructose, hypoxanthine, and uric acid; wherein the at least 10 small organic compounds comprise uric acid at 0.3 to 3 times the concentration of 350 μM. at least 9 proteinogenic amino acids; one or more vitamins; one or more inorganic ions; glucose; and at least 10 small organic compounds selected from 4-hydroxyproline, acetylglycine, alpha-aminobutyrate, betaine, carnitine, citrulline, ornithine, taurine, 2-hydroxybutyrate, 3-hydroxybutyrate, acetate, citrate, formate, lactate, malonate, pyruvate, succinate, acetone, creatine, creatinine, glutathione, glycerol, urea, galactose, fructose, hypoxanthine, and uric acid; wherein the at least 10 small organic compounds comprise uric acid at 0.3 to 3 times the concentration of 350 μM.
A burner for the gasification of a solid fuel, comprising a burner front having an opening for discharging a solid fuel and a single central opening for discharging an oxygen containing gas, wherein the opening for discharging the solid fuel is fluidly connected to a central passage way and wherein the opening for discharging the oxygen containing gas is fluidly connected to an annular passage way for passage of oxygen positioned co-axially with the central passage way and wherein the central passage way has a downstream part wherein the diameter of the passage way increases over a first length and subsequently decreases over a second length terminating at the burner front and wherein inside the downstream part of the central passage way a hollow member is positioned which is closed at one end and has an opening at the burner front, the hollow member having an increasing diameter and decreasing diameter aligned with the increasing and decreasing diameter of the central passage way to form an annular passage for the solid fuel terminating at burner front in a inwardly directed annular opening for discharging the solid fuel and wherein the hollow member is fluidly connected with the annular passage way for the oxygen containing gas by means of one or more connecting conduits and wherein the opening of the hollow member is the opening for discharging the oxygen containing gas at the burner front and wherein the hollow member has an internal increasing diameter and inner decreasing diameter aligned with the increasing and decreasing diameter of the hollow member and wherein the connecting conduits have a discharge opening positioned in the diverging part of the hollow member.
Wind turbine comprising a rotor with at least two blades (14A, 14B), which are respectively provided with at least one inclinometer arrangement (30A, 30B, 31A, 31B) with at least two axes, and an evaluating unit (44, 50, 52) in order to determine from the signals of the inclinometer arrangements for each blade the bending and/or twisting of the blade with respect to the longitudinal axis of the blade during operation.
A method for determining nonlinear hysteretic parameters and pore pressure in a formation through a borehole, comprising: generating strain in a volume surrounding the borehole by focusing a low frequency, periodic acoustic signal in the volume, the low frequency, periodic acoustic signal having a first frequency and a first amplitude; transmitting pulsed, high frequency acoustic signals through the volume when the strain is generated in the volume with the low frequency, periodic acoustic signal; measuring signals generated in the formation in the volume relating to particle velocity or particle acceleration in the formation; determining the strain in the volume based on the signals generated in the formation in the volume relating to particle velocity or particle acceleration in the formation; measuring time-of-flight of the pulsed, high frequency acoustic signals through the volume as a function of the strain in the volume; determining change of the time-of-flight of the pulsed, high frequency acoustic signals as a function of the strain in the volume; and determining nonlinear hysteretic parameters α, β, and δ based on the change of the time-of-flight of the pulsed, high frequency acoustic signals as a function of the strain in the volume, wherein the high frequency pulsed acoustic signals are generated in the borehole; the low frequency, focused periodic acoustic signal is generated in the borehole; the method further characterised in that pore pressure in the volume is determined based on the nonlinear hysteretic parameters α, β, and δ. generating strain in a volume surrounding the borehole by focusing a low frequency, periodic acoustic signal in the volume, the low frequency, periodic acoustic signal having a first frequency and a first amplitude; transmitting pulsed, high frequency acoustic signals through the volume when the strain is generated in the volume with the low frequency, periodic acoustic signal; measuring signals generated in the formation in the volume relating to particle velocity or particle acceleration in the formation; determining the strain in the volume based on the signals generated in the formation in the volume relating to particle velocity or particle acceleration in the formation; measuring time-of-flight of the pulsed, high frequency acoustic signals through the volume as a function of the strain in the volume; determining change of the time-of-flight of the pulsed, high frequency acoustic signals as a function of the strain in the volume; and determining nonlinear hysteretic parameters α, β, and δ based on the change of the time-of-flight of the pulsed, high frequency acoustic signals as a function of the strain in the volume, wherein the high frequency pulsed acoustic signals are generated in the borehole; the low frequency, focused periodic acoustic signal is generated in the borehole; the method further characterised in that pore pressure in the volume is determined based on the nonlinear hysteretic parameters α, β, and δ.
Seeker for a target-tracking missile, the seeker comprising: a pitch frame to accommodate a detector assembly, a yaw frame, wherein the pitch frame is mounted pivotably around a first axis, a base wherein the yaw frame is mounted pivotably around a second axis, a drive belt and a drive motor, wherein the yaw frame is mounted on the base by means of a rail, wherein the rail and the yaw frame extend at least partially around the second axis such that the pitch frame exhibits a pivot range of at least 180°, wherein the rail is fastened on the yaw frame and the base comprises a plurality of rollers, whose roller axes are aligned parallel to the second axis and roll off on a roller face of the rail during pivoting of the yaw frame in the base, which faces away from the second axis orthogonally, wherein the drive belt is connected to the yaw frame and the drive motor such that a rotary movement of a motor shaft of the drive motor is converted into a pivoting movement of the yaw frame, wherein the drive belt at its first end and at its second end is fastened on the yaw frame and is guided via the motor shaft, and wherein the drive belt is pre-tensioned such that the yaw frame is pressed against the base and is held on the base exclusively by means of the drive belt. a pitch frame to accommodate a detector assembly, a yaw frame, wherein the pitch frame is mounted pivotably around a first axis, a base wherein the yaw frame is mounted pivotably around a second axis, a drive belt and a drive motor, wherein the yaw frame is mounted on the base by means of a rail, wherein the rail and the yaw frame extend at least partially around the second axis such that the pitch frame exhibits a pivot range of at least 180°, wherein the rail is fastened on the yaw frame and the base comprises a plurality of rollers, whose roller axes are aligned parallel to the second axis and roll off on a roller face of the rail during pivoting of the yaw frame in the base, which faces away from the second axis orthogonally, wherein the drive belt is connected to the yaw frame and the drive motor such that a rotary movement of a motor shaft of the drive motor is converted into a pivoting movement of the yaw frame, wherein the drive belt at its first end and at its second end is fastened on the yaw frame and is guided via the motor shaft, and wherein the drive belt is pre-tensioned such that the yaw frame is pressed against the base and is held on the base exclusively by means of the drive belt.
A method for determining packet processing data, characterized by: receiving a packet; forming a tuple representing flow classifications for the packet, the tuple including a plurality of flow properties associated with the packet; applying a destination address subtuple of the tuple, identifying a first flow property associated with the packet, as a first lookup key to a look-up table and retrieving a first nickname and a first recursion indicator associated with the first lookup key, and using the first nickname as packet processing data based on a determination that the first recursion indicator is negative, otherwise, applying a combination of the first nickname and a second subtuple of the tuple, identifying a second flow property associated with the packet, as a second lookup key to the look-up table and retrieving a second nickname and a second recursion indicator associated with the second lookup key, and using the second nickname as the packet processing data based on a determination that the second recursion indicator is negative, otherwise, continuing the steps of applying lookup keys and retrieving associated nicknames and recursion indicators until a negative recursion indicator is retrieved, where the nickname associated with the negative recursion indicator is the packet processing data. receiving a packet; forming a tuple representing flow classifications for the packet, the tuple including a plurality of flow properties associated with the packet; applying a destination address subtuple of the tuple, identifying a first flow property associated with the packet, as a first lookup key to a look-up table and retrieving a first nickname and a first recursion indicator associated with the first lookup key, and using the first nickname as packet processing data based on a determination that the first recursion indicator is negative, otherwise, applying a combination of the first nickname and a second subtuple of the tuple, identifying a second flow property associated with the packet, as a second lookup key to the look-up table and retrieving a second nickname and a second recursion indicator associated with the second lookup key, and using the second nickname as the packet processing data based on a determination that the second recursion indicator is negative, otherwise, continuing the steps of applying lookup keys and retrieving associated nicknames and recursion indicators until a negative recursion indicator is retrieved, where the nickname associated with the negative recursion indicator is the packet processing data.
An ultrasonic flowmeter comprising first, second and third ultrasonic wave elements (19 to 21) attached to an outer wall of a pipeline through which a measurement target fluid flows, wherein the first ultrasonic wave element is an ultrasonic wave transmission element whose transmission and reception functions can be switched and is attached to the outer wall of the pipeline so that an ultrasonic wave transmission surface thereof is in parallel to a pipe axis direction of the pipeline, the second and third ultrasonic wave elements are ultrasonic wave reception elements (20, 21) and are attached to the outer wall of the pipeline so that an ultrasonic wave reception surface thereof is in parallel to the pipe axis direction of the pipeline, wherein the first, second and third ultrasonic wave elements are disposed in the pipe axis direction and the second and third ultrasonic wave elements (20, 21) sandwich the first ultrasonic wave element therebetween; a self-calibration unit configured to calculate a travel distance of the measurement target fluid in the pipe axis direction and sound velocity of the fluid based on the ultrasonic signal transmitted by the first ultrasonic wave element, traveling in a direction perpendicular to the pipe axis direction of the pipeline and detected by the first ultrasonic wave element; a flow rate measurement calculation unit configured to calculate a flow rate of the measurement target fluid using a calculation result of the self-calibration unit, and ultrasonic waves transmitted by the first ultrasonic wave element, travelling in a direction non-perpendicular to the pipe axis direction and detected by the second and third ultrasonic wave elements (20, 21); and an integrating member for fixing a relative positional relation among the first, second and third ultrasonic wave elements.
A LED illumination lamp usable as a room or interior or exterior space lighting device, extending substantially along and about an axis and comprising a LED light source located substantially along the axis; a light diverting optical element located substantially in front of the light source along the axis and shaped so as to laterally divert the light impinging substantially axially on the optical element; and an optical guide plate surrounding the optical element and the axis; the plate extending along the axis between two opposite faces (21, 22) respectively defining a front light-exit surface and a rear active surface; the plate being provided with a seat, that houses the light source and the optical element and being bounded by a lateral wall surrounding the axis, the optical element, and the light source; the optical element having a reflecting surface shaped so as to reflect the light from the light source onto the lateral wall of the seat and, through the lateral wall, into the plate; the face defining the rear active surface being substantially perpendicular to the axis; characterized in that, the rear active surface has a series of annular projections spaced radially apart from one another and concentric with the axis and the projections project from the face substantially axially, i.e. parallel to the axis, and beyond an edge bounding the seat in which the light source and the optical element are housed; the projections being defined by respective concentric annular prisms circling the axis and having sides which slope, with respect to the face of the plate from which they project, by an angle ranging between roughly 20° and 30°; the plate and the projections being shaped so as to internally reflect onto the front surface, by reflection at less than the total reflection angle, substantially all the light entering the plate through the lateral wall of the seat, and preventing the light from exiting the plate through the rear active surface, so that light is emitted substantially entirely through the front surface.
A construction element comprising, a) a construction material; b) a heating element comprising a foil comprising a PTC composition layer or a PTC composition layer; c) at least one adhesive layer; d) a substrate; and e) a connector, wherein said heating element is embedded between said construction material and said substrate, and wherein said PTC composition comprises 1) an electronically conductive material and is characterized in that it further comprises 2) a semi-crystalline material; and 3) at least two binders, wherein the first binder is selected from the group consisting of thermoplastic polyurethanes, polyesters, polyacrylates, polysiloxanes, halogenated vinyl or vinylidene polymers, polyamide copolymers, phenoxy resins, polyethers, polyketones, polyvinyl butyral, polyvinyl pyrrolidone, polyacrylates and mixtures thereof, and wherein the second binder is selected from the group consisting of ethylene vinyl acetate polymers, poly vinyl alcohol, ethylene alkyl acrylate copolymers and mixtures thereof. a) a construction material; b) a heating element comprising a foil comprising a PTC composition layer or a PTC composition layer; c) at least one adhesive layer; d) a substrate; and e) a connector,
A winding apparatus (10, 60) for winding a wire around a wound member (13b, 63b), comprising: a supporting tool (18, 68) configured to support the wound member (13b, 63b); a nozzle formed with a wire feed hole, the wire passing through the wire feed hole; a relative moving mechanism configured to relatively move the nozzle with respect to the supporting tool (18, 68); and a rod provided adjacent to the nozzle to be moved together with the nozzle by the relative moving mechanism, the rod being provided in parallel to the wire feed hole and deviated from the wire feed hole in a radial direction of the wire feed hole, characterized by a rod rotating mechanism configured to rotate the rod about the wire feed hole around the wire feed hole, wherein the rod is integrally formed to the nozzle. a supporting tool (18, 68) configured to support the wound member (13b, 63b); a nozzle formed with a wire feed hole, the wire passing through the wire feed hole; a relative moving mechanism configured to relatively move the nozzle with respect to the supporting tool (18, 68); and a rod provided adjacent to the nozzle to be moved together with the nozzle by the relative moving mechanism, the rod being provided in parallel to the wire feed hole and deviated from the wire feed hole in a radial direction of the wire feed hole, characterized by a rod rotating mechanism configured to rotate the rod about the wire feed hole around the wire feed hole, wherein the rod is integrally formed to the nozzle.