mhurhangee/ep-ind-claims huggingface dataset:
Hydraulic assembly with a controllable electric motor and with an adjusting pump which can be coupled to the said electric motor, it being possible for the pivot angle of the said adjusting pump to be set by means of a hydromechanical adjusting device and it being possible for the operating pressure of the said adjusting pump to be detected by means of a pressure sensor, characterized in that the pivot angle can be detected by means of a pivot angle sensor, wherein a rotation speed of the electric motor can be controlled depending on the pivot angle sensor and the pressure sensor.
Simulation device for an electrically controlled braking apparatus for a vehicle, wherein said device is connectable to a pedal group comprising a pedal and a strut moveable with the pedal and translatable by flattening of the pedal by a user, said device comprising: - a contrast body translatable with the strut of the pedal group, translatable along a translation axis; - a mobile group provided with a main abutment wall; - at least one elastic contrast element, positioned between the main abutment wall and the contrast body, so as to be compressible between them; - movement means of the mobile group suitable for being activated to achieve the translation of the mobile group, comprising: a) an electric motor having a motorised axis slant in relation to the translation axis; b) a transmission element, controllable in rotation by the motor, having a rotation axis coinciding with the translation axis; c) a movement screw, attachable to a vehicle wall, extending along the translation axis, on which the transmission element is engaged; said transmission element being suitable to act on the mobile group to obtain a translation thereof, thus modifying the position of the main abutment wall with respect to the contrast body, wherein the motor and the transmission element are on board the mobile group. - a contrast body translatable with the strut of the pedal group, translatable along a translation axis; - a mobile group provided with a main abutment wall; - at least one elastic contrast element, positioned between the main abutment wall and the contrast body, so as to be compressible between them; - movement means of the mobile group suitable for being activated to achieve the translation of the mobile group, comprising: a) an electric motor having a motorised axis slant in relation to the translation axis; b) a transmission element, controllable in rotation by the motor, having a rotation axis coinciding with the translation axis; c) a movement screw, attachable to a vehicle wall, extending along the translation axis, on which the transmission element is engaged; a) an electric motor having a motorised axis slant in relation to the translation axis; b) a transmission element, controllable in rotation by the motor, having a rotation axis coinciding with the translation axis; c) a movement screw, attachable to a vehicle wall, extending along the translation axis, on which the transmission element is engaged;
A direct current electric arc furnace for metallurgical plant comprising at least one bottom electrode having a plurality of metal bars parallel to one another and defining respective longitudinal axes, and a support flange adapted to support and electrically supply said metal bars, characterized in that each metal bar comprises at least a first portion (12, 12') which includes a first end of the bar, and at least a second portion (13, 13') which is axially adjacent to said first portion (12, 12') and which includes a second end of the bar, said first portion (12, 12') being restrained to said support flange at the first end, and having greater thermal conductivity with respect to said second portion (13, 13').
A network delay estimation apparatus that creates a metric tree describing delays among nodes of a network including a plurality of nodes, comprising: a first-round measurement target node selection section adapted to select from a known metric tree a pair of nodes located at a long distance from each other as first-round measurement target nodes and to measure distances between a joining node and each of the first-round measurement target nodes; a second-round measurement target node selection section adapted to determine a node whose distance from the joining node is estimated to be short based on the distances between the joining node and each of the first-round measurement target nodes, to select the determined node as a second-round measurement target node, and to measure a distance between the joining node and the second-round measurement target node; and an optimum tree processing section adapted to create a new metric tree including the joining node based on the first-round measurement target nodes, the second-round measurement target node, and the known metric tree. a first-round measurement target node selection section adapted to select from a known metric tree a pair of nodes located at a long distance from each other as first-round measurement target nodes and to measure distances between a joining node and each of the first-round measurement target nodes; a second-round measurement target node selection section adapted to determine a node whose distance from the joining node is estimated to be short based on the distances between the joining node and each of the first-round measurement target nodes, to select the determined node as a second-round measurement target node, and to measure a distance between the joining node and the second-round measurement target node; and an optimum tree processing section adapted to create a new metric tree including the joining node based on the first-round measurement target nodes, the second-round measurement target node, and the known metric tree.
A method for storing a hydrochlorofluoroolefin in a sealed storage container, wherein the hydrochlorofluoroolefin is stored in such a state that a gas phase and a liquid phase coexist in the storage container, and the concentration of air in the gas phase in the storage container at a temperature of 25°C is kept to be at least 1 vol ppm and at most 3.0 vol%.
System for transporting fluid across or into a biological barrier, which system comprises: A device that is provided with a housing having at least one abutment surface for abutting the biological barrier; A substrate from which a plurality of hollow micro needles project, which substrate is to be received in the housing; A fluid reservoir which can be brought into fluid communication with the micro needles; which reservoir is to be received in the housing; Wherein the device comprises a displacement mechanism that comprises a ram arranged movably in the housing from a first to a second ram position in a direction that is substantially perpendicular to the abutment surface for displacing the substrate and the reservoir relative to the abutment surface from a first position, in which the micro needles essentially are present in the housing, to a second position from which the micro needles project out of the housing beyond the abutment surface, such that they can penetrate the biological barrier, characterised in that, the reservoir and the substrate are incorporated into a capsule comprising a fluid dose, the housing comprises an end part for receiving the capsule, the abutment surface being provided on the end part, the ram is arranged to push the capsule from the first position to the second position in the end part, and in that the ram subsequently proceeds to a third ram position thereby deforming the reservoir for raising the pressure inside the reservoir such that the fluid dose will be transported through the hollow micro needles across or into the biological barrier substantially all at a time. A device that is provided with a housing having at least one abutment surface for abutting the biological barrier; A substrate from which a plurality of hollow micro needles project, which substrate is to be received in the housing; A fluid reservoir which can be brought into fluid communication with the micro needles; which reservoir is to be received in the housing; Wherein the device comprises a displacement mechanism that comprises a ram arranged movably in the housing from a first to a second ram position in a direction that is substantially perpendicular to the abutment surface for displacing the substrate and the reservoir relative to the abutment surface from a first position, in which the micro needles essentially are present in the housing, to a second position from which the micro needles project out of the housing beyond the abutment surface, such that they can penetrate the biological barrier, characterised in that, the reservoir and the substrate are incorporated into a capsule comprising a fluid dose, the housing comprises an end part for receiving the capsule, the abutment surface being provided on the end part, the ram is arranged to push the capsule from the first position to the second position in the end part, and in that the ram subsequently proceeds to a third ram position thereby deforming the reservoir for raising the pressure inside the reservoir such that the fluid dose will be transported through the hollow micro needles across or into the biological barrier substantially all at a time.
A woven rope having a length direction, a circumferential direction, and an outer surface, wherein the woven rope comprises: an inner portion comprising a plurality of multifilament fibers in the length direction of the woven rope; and, a jacket portion, wherein the jacket portion covers the inner portion, characterized in that the jacket portion comprises a plurality of monofilament fibers in the length direction of the woven rope and at least one multifilament fiber in the circumferential direction interwoven with the monofilament fibers in the length direction of the jacket portion, wherein the monofilament fibers form the majority outer surface of the woven rope. an inner portion comprising a plurality of multifilament fibers in the length direction of the woven rope; and, a jacket portion, wherein the jacket portion covers the inner portion, characterized in that the jacket portion comprises a plurality of monofilament fibers in the length direction of the woven rope and at least one multifilament fiber in the circumferential direction interwoven with the monofilament fibers in the length direction of the jacket portion, wherein the monofilament fibers form the majority outer surface of the woven rope.
A laundry treatment apparatus comprising: a tub; a drum configured to rotate within the tub and to contain laundry therein, the drum being formed of a metallic material; and an induction module provided at an outer surface of the tub and configured to heat a surface of the drum within the tub via induction, the induction module comprising: a coil that comprises a wire through which an electric current is configured to pass so as to generate a magnetic field; characterized in that the induction module further comprises: a base housing configured to accommodate the coil by defining a coil slot in which the wire of the coil is received, the coil slot having a width that is less than a diameter of the wire so that the wire of the coil is interference-fitted into the coil slot. a tub; a drum configured to rotate within the tub and to contain laundry therein, the drum being formed of a metallic material; and an induction module provided at an outer surface of the tub and configured to heat a surface of the drum within the tub via induction, the induction module comprising: a coil that comprises a wire through which an electric current is configured to pass so as to generate a magnetic field; characterized in that the induction module further comprises: a base housing configured to accommodate the coil by defining a coil slot in which the wire of the coil is received, the coil slot having a width that is less than a diameter of the wire so that the wire of the coil is interference-fitted into the coil slot. a coil that comprises a wire through which an electric current is configured to pass so as to generate a magnetic field; characterized in that the induction module further comprises: a base housing configured to accommodate the coil by defining a coil slot in which the wire of the coil is received, the coil slot having a width that is less than a diameter of the wire so that the wire of the coil is interference-fitted into the coil slot.
An electronic cigarette, comprising: an atomizer; a battery pack supplying power to the atomizer; wherein a pluggable connecting means is provided between the atomizer and the battery pack and configured to be an elastic snap or a detachable clip means so that the atomizer and the battery pack are connected together pluggably, characterized in that the pluggable connecting means comprises a first connecting portion on one of the atomizer and the battery pack, and a second connecting portion on the other one of the atomizer and the battery pack; the first connecting portion comprises a first electrode and a second electrode, the first electrode and the second electrode are distributed axially with respect to the first connecting portion, the second connecting portion comprises a sleeve, an insulated base disposed inside the sleeve, and a first elastic sheet and a second elastic sheet fixed between the insulated base and the sleeve, a plugging cavity is defined within the insulated base; and when the first connecting portion is inserted into the plugging cavity, the first elastic sheet and the second elastic sheet abut against the second electrode and the first electrode respectively so that axial locking and electrical connection between the first connecting portion and the second connecting portion are achieved. an atomizer; a battery pack supplying power to the atomizer; wherein a pluggable connecting means is provided between the atomizer and the battery pack and configured to be an elastic snap or a detachable clip means so that the atomizer and the battery pack are connected together pluggably, characterized in that the pluggable connecting means comprises a first connecting portion on one of the atomizer and the battery pack, and a second connecting portion on the other one of the atomizer and the battery pack; the first connecting portion comprises a first electrode and a second electrode, the first electrode and the second electrode are distributed axially with respect to the first connecting portion, the second connecting portion comprises a sleeve, an insulated base disposed inside the sleeve, and a first elastic sheet and a second elastic sheet fixed between the insulated base and the sleeve, a plugging cavity is defined within the insulated base; and when the first connecting portion is inserted into the plugging cavity, the first elastic sheet and the second elastic sheet abut against the second electrode and the first electrode respectively so that axial locking and electrical connection between the first connecting portion and the second connecting portion are achieved.
An extendable clasp (10; 100; 200; 300) with folding buckle for a bracelet comprising: - a support (12; 112; 212) with two longitudinal edges (14a, 14b; 114a, 114b; 214a, 214b), - at least one flexible blade (17; 170; 270) rigidly connected to the support, the flexible blade having at least one end portion, - at least one pivoting blade (20a, 20b; 120a, 120b; 220; 320) with a proximal portion articulated with one end of the support by means of a rod (21a, 21b; 121a, 121b; 221) and a distal portion designed to be connected to one of the halves of a bracelet, and the flexible blade being designed to exert a force on said at least one pivoting blade to press the pivoting blade against the support (12; 112; 212) and hold the clasp in a closed state, the claps being characterized by: - an indexing mechanism for adjusting the bracelet for comfort that is designed to move the rod (21a, 21b; 121a, 121b; 221) relative to the support or relative to said at least one pivoting blade (121a, 121b) in order to position the rod in one of at least two indexed positions, and in that - the flexible blade is arranged to lock the rod (21a, 21b; 121a, 121b; 221) in said indexed position. - a support (12; 112; 212) with two longitudinal edges (14a, 14b; 114a, 114b; 214a, 214b), - at least one flexible blade (17; 170; 270) rigidly connected to the support, the flexible blade having at least one end portion, - at least one pivoting blade (20a, 20b; 120a, 120b; 220; 320) with a proximal portion articulated with one end of the support by means of a rod (21a, 21b; 121a, 121b; 221) and a distal portion designed to be connected to one of the halves of a bracelet, and - an indexing mechanism for adjusting the bracelet for comfort that is designed to move the rod (21a, 21b; 121a, 121b; 221) relative to the support or relative to said at least one pivoting blade (121a, 121b) in order to position the rod in one of at least two indexed positions, and in that - the flexible blade is arranged to lock the rod (21a, 21b; 121a, 121b; 221) in said indexed position.
Food processing device comprising: at least two food slicing devices (1, 2, 3) which are adapted to each produce partial portions, a respective sensor assembly (4, 5, 6, 7) which is adapted to determine at least one property of said partial portions produced by one of said food slicing devices (1, 2, 3), and a combination device (16, 17, 27, 28) which is disposed downstream of at least each food slicing device (1, 2, 3) and adapted to combine said partial portions to a multi-type portion, characterized in that a control device is provided which is adapted to control the operation of said food slicing devices (1, 2, 3) based of said properties of said respective partial portions in order to adjust the weight of said partial portions to another, whereby with great accuracy the target weight of the a multi-type portion can be obtained. at least two food slicing devices (1, 2, 3) which are adapted to each produce partial portions, a respective sensor assembly (4, 5, 6, 7) which is adapted to determine at least one property of said partial portions produced by one of said food slicing devices (1, 2, 3), and a combination device (16, 17, 27, 28) which is disposed downstream of at least each food slicing device (1, 2, 3) and adapted to combine said partial portions to a multi-type portion,
A method for the preparation of plant fiber insulation materials for injected insulation or poured-in insulation, comprising a) the provision of, if applicable, dried as well as, if applicable, pre-crushed plant material, in particular reduced in length, which is equipped with a cuticula, b) treating the plant material according to a), such that said plant material is converted into a condition of higher flexibility, in particular with heat and/or water and/or water vapor, c) mechanical and, if applicable, chemical crushing preparation of the plant material obtained according to step b) in at least one refiner, wherein the refiner has a rotor and a stator, wherein the distance between the rotor and stator in step c) is between 0.0 mm and 5.0 mm, and wherein the crushing preparation according to step c) in the refiner includes a thermomechanical or a chemo-thermomechanical (CTMP) refiner process, d) drying the plant material prepared according to step c), wherein the plant material has a residual moisture in the region of 5 to 25 percent by weight after step d), and e) if applicable, adding at least one flame retardant and/or at least one hydrophobing agent and/or at least one biocide to the plant material in and/or after step a) and/or in and/or after step b) and/or in and/or after c) and/or to the dried plant material in and/or after step d). a) the provision of, if applicable, dried as well as, if applicable, pre-crushed plant material, in particular reduced in length, which is equipped with a cuticula, b) treating the plant material according to a), such that said plant material is converted into a condition of higher flexibility, in particular with heat and/or water and/or water vapor, c) mechanical and, if applicable, chemical crushing preparation of the plant material obtained according to step b) in at least one refiner, wherein the refiner has a rotor and a stator, wherein the distance between the rotor and stator in step c) is between 0.0 mm and 5.0 mm, and wherein the crushing preparation according to step c) in the refiner includes a thermomechanical or a chemo-thermomechanical (CTMP) refiner process, d) drying the plant material prepared according to step c), wherein the plant material has a residual moisture in the region of 5 to 25 percent by weight after step d), and e) if applicable, adding at least one flame retardant and/or at least one hydrophobing agent and/or at least one biocide to the plant material in and/or after step a) and/or in and/or after step b) and/or in and/or after c) and/or to the dried plant material in and/or after step d).
Method for measuring a group delay time ( τ G) caused by a device under test, with the aid of a network analyser comprising the following method steps: • Generation of an excitation signal ( x In ( t)) with two high frequency single tone signals ( x In 1 ( t), x In 2 ( t)) each having a different frequency separated by a frequency gap (Δ ω), in the network analyser, • Excitation of the device under test with the excitation signal ( x In ( t)) and measurement of a response signal ( x Out ( t)) consisting of two signals ( x Out 1 ( t), x Out 2 ( t)) which are each distorted out of phase by the device under test with respect to the signals ( x In ( t), x In 2 ( t)) of the excitation signal ( x In ( t)), by the network analyser, • Determination of a phase difference (Δ φ In) between the signals ( x In 1 ( t), x In 2 ( t)) belonging to the excitation signal ( x In ( t)) and of a phase difference (Δ φ Out) between the signals ( x Out 1 ( t), x Out 2 ( t)) belonging to the response signal ( x Out ( t)) and • Calculation of the group delay time ( τ G) from the phase difference (Δ φ In) of the signals ( x In 1 ( t), x In 2 ( t)) belonging to the excitation signal ( x In ( t)), the phase difference (Δ φ Out) of the signals ( x Out 1 ( t), x Out 2 ( t)) belonging to the response signal ( x Out ( t)) and the frequency gap (Δ ω), wherein the device under test is a frequency-converting function unit, wherein the signals ( x In 1 ( t), x In 2 ( t)) belonging to the excitation signal ( x In ( t)) are mixed into the intermediate frequency band and/or into the base band sequentially to the signals ( x Out 1 ( t), x Out 2 ( t)) belonging to the response signal ( x Out ( t)). • Generation of an excitation signal ( x In ( t)) with two high frequency single tone signals ( x In 1 ( t), x In 2 ( t)) each having a different frequency separated by a frequency gap (Δ ω), in the network analyser, • Excitation of the device under test with the excitation signal ( x In ( t)) and measurement of a response signal ( x Out ( t)) consisting of two signals ( x Out 1 ( t), x Out 2 ( t)) which are each distorted out of phase by the device under test with respect to the signals ( x In ( t), x In 2 ( t)) of the excitation signal ( x In ( t)), by the network analyser, • Determination of a phase difference (Δ φ In) between the signals ( x In 1 ( t), x In 2 ( t)) belonging to the excitation signal ( x In ( t)) and of a phase difference (Δ φ Out) between the signals ( x Out 1 ( t), x Out 2 ( t)) belonging to the response signal ( x Out ( t)) and • Calculation of the group delay time ( τ G) from the phase difference (Δ φ In) of the signals ( x In 1 ( t), x In 2 ( t)) belonging to the excitation signal ( x In ( t)), the phase difference (Δ φ Out) of the signals ( x Out 1 ( t), x Out 2 ( t)) belonging to the response signal ( x Out ( t)) and the frequency gap (Δ ω),