mhurhangee/ep-ind-claims huggingface dataset:
Wave winding production device for producing wave winding wires for a coil winding of an electric machine via flat winding, comprising: a linear guide mechanism and a row of shaping elements (14.1, 14.2) each having a holder for holding a straight wire section of a wire to be bent and a bending mold for shaping a wave winding head region between the straight wire sections, the shaping elements (14.1, 14.2) being linearly movable relative to each other on the linear guide mechanism and rotatably mounted about a respective axis of rotation in such a way that, from an initial position in which the holders of the shaping elements (14. 1, 14.2) are aligned with respect to one another, respectively neighboring shaping elements (14.1, 14.2) rotate in mutually opposite directions and the shaping elements (14.1, 14.2) thereby approach one another with their axes of rotation in order to form a meandering wave winding wire with straight wire sections and chevron-shaped wave winding heads in between from the wire held in the holders, wherein the linear guide mechanism comprises a first linear guide and a second linear guide, characterized in that the spacing between the first linear guide and the second linear guide to each other is variable, wherein further a converter mechanism for converting a change in the spacing of the first linear guide and the second linear guide into the rotational movement of the shaping elements (14.1, 14.2) is provided. a linear guide mechanism and a row of shaping elements (14.1, 14.2) each having a holder for holding a straight wire section of a wire to be bent and a bending mold for shaping a wave winding head region between the straight wire sections, the shaping elements (14.1, 14.2) being linearly movable relative to each other on the linear guide mechanism and rotatably mounted about a respective axis of rotation in such a way that, from an initial position in which the holders of the shaping elements (14. 1, 14.2) are aligned with respect to one another, respectively neighboring shaping elements (14.1, 14.2) rotate in mutually opposite directions and the shaping elements (14.1, 14.2) thereby approach one another with their axes of rotation in order to form a meandering wave winding wire with straight wire sections and chevron-shaped wave winding heads in between from the wire held in the holders, wherein the linear guide mechanism comprises a first linear guide and a second linear guide, characterized in that the spacing between the first linear guide and the second linear guide to each other is variable, wherein further a converter mechanism for converting a change in the spacing of the first linear guide and the second linear guide into the rotational movement of the shaping elements (14.1, 14.2) is provided.
Symmetrical coin lock, which consists of a casing with two upper slots, for the insertion of coins,, a tongue which can move to the left/right by the action of an eccentric pivot of a tongue lever which, housed in a channel of said tongue, moves it when said tongue lever is actuated directly/indirectly by a key, and in which a) the casing has a longitudinal plane of symmetry, A:A the upper slots, facing each other b) two tongue stops, which are arranged in correspondence with each coin, and a tongue stop carrier which is engaged with one or both tongue stops,; the two tongue stops, and the tongue stop carrier having the same pivoting axis on the casing c) the tongue has an opening c1) with a recess against which the heads, of the tongue stops, hit when the tongue moves in the absence of the corresponding coins, c2) with an end seat for the heads, of the tongue stops, when the tongue moves in the presence of the corresponding coins, d) arranged on each side of the tongue and under the opening are d1) a fixed stop,, both stops being, fixed to the tongue d2) a movable stop,, both movable stops, being coupled together by means of a positioning lever which is carried by the tongue with a pin on which it can pivot. a) the casing has a longitudinal plane of symmetry, A:A the upper slots, facing each other b) two tongue stops, which are arranged in correspondence with each coin, and a tongue stop carrier which is engaged with one or both tongue stops,; the two tongue stops, and the tongue stop carrier having the same pivoting axis on the casing c) the tongue has an opening c1) with a recess against which the heads, of the tongue stops, hit when the tongue moves in the absence of the corresponding coins, c2) with an end seat for the heads, of the tongue stops, when the tongue moves in the presence of the corresponding coins, c1) with a recess against which the heads, of the tongue stops, hit when the tongue moves in the absence of the corresponding coins, c2) with an end seat for the heads, of the tongue stops, when the tongue moves in the presence of the corresponding coins, d) arranged on each side of the tongue and under the opening are d1) a fixed stop,, both stops being, fixed to the tongue d2) a movable stop,, both movable stops, being coupled together by means of a positioning lever which is carried by the tongue with a pin on which it can pivot. d1) a fixed stop,, both stops being, fixed to the tongue d2) a movable stop,, both movable stops, being coupled together by means of a positioning lever which is carried by the tongue with a pin on which it can pivot.
Cooling system for an electrical-energy storage module, this system comprising: - a housing designed to house an electrical-energy storage module comprising one or more battery cells, this housing comprising a bottom face and at least one lateral face notably perpendicular to the bottom face, these faces preferably being connected to one another, - an internal heat-transfer fluid circuit comprising at least two cooling plates through which the heat-transfer fluid can circulate, each of these plates being in thermal contact with a respective one of said faces of the housing so as to cool the storage module when the latter is placed in the housing, - a fluid connector (310; 31) designed to connect the internal heat-transfer fluid circuit to a heat-transfer fluid circuit external to the cooling system, - a structural member designed to perform a mechanical function, the structural member notably being designed to allow the device to be grasped when this device is being handled or being designed to allow the device to be fixed to the vehicle, this structural member being distinct from the cooling plates, in which system the fluid connector is mounted on this structural element, the fluid connector notably forming an integral part of this structural element. - a housing designed to house an electrical-energy storage module comprising one or more battery cells, this housing comprising a bottom face and at least one lateral face notably perpendicular to the bottom face, these faces preferably being connected to one another, - an internal heat-transfer fluid circuit comprising at least two cooling plates through which the heat-transfer fluid can circulate, each of these plates being in thermal contact with a respective one of said faces of the housing so as to cool the storage module when the latter is placed in the housing, - a fluid connector (310; 31) designed to connect the internal heat-transfer fluid circuit to a heat-transfer fluid circuit external to the cooling system, - a structural member designed to perform a mechanical function, the structural member notably being designed to allow the device to be grasped when this device is being handled or being designed to allow the device to be fixed to the vehicle, this structural member being distinct from the cooling plates,
A method for creating a secure virtualization environment on a host computing device, without modifying the host computing device, the secure virtualization environment bootable from an external media device, the method comprising: a) loading, by a host computing device, a common operating system image stored on an external media device; the method characterized by: b) booting, by the host computing device, the loaded common operating system image; c) determining, by a client agent executing in the common operating system image, that an adapted operating system image on the external media device was derived from an operating system of the host computing device; d) identifying, by the client agent, differences between the operating system of the host computing device and the adapted operating system image; e) modifying, by the client agent, the adapted operating system image to correspond to the operating system of the host computing device, wherein modifying comprises at least one of removing, from the adapted operating system image, data corresponding to the differences and adding, to the adapted operating system image, data corresponding to the differences; f) providing, by the host computing device, a secure virtualized environment by booting the adapted operating system image; and g) eliminating, by the host computing device, the adapted operating system image from the external media device. a) loading, by a host computing device, a common operating system image stored on an external media device; the method characterized by: b) booting, by the host computing device, the loaded common operating system image; c) determining, by a client agent executing in the common operating system image, that an adapted operating system image on the external media device was derived from an operating system of the host computing device; d) identifying, by the client agent, differences between the operating system of the host computing device and the adapted operating system image; e) modifying, by the client agent, the adapted operating system image to correspond to the operating system of the host computing device, wherein modifying comprises at least one of removing, from the adapted operating system image, data corresponding to the differences and adding, to the adapted operating system image, data corresponding to the differences; f) providing, by the host computing device, a secure virtualized environment by booting the adapted operating system image; and g) eliminating, by the host computing device, the adapted operating system image from the external media device.
A running tool for setting and internally testing a packoff of a well pipe hanger, the running tool comprising: an elongated stem having an axial passage, threads in its outer surface, and a downward facing shoulder positioned adjacent thereto; a body surrounding and threaded to the stem such that rotation of the stem causes the stem to translate axially relative to the body from a run-in position to a packoff set position, then to a packoff test position, and finally to a release position; an engagement element, carried by the body and adapted to be engaged with the hanger, the axial movement of the stem relative to the body to the run-in position causing the shoulder to contact the engagement element and move it radially outward and in engagement with the hanger to releasably secure the running tool to the hanger; a piston, substantially surrounding portions of the stem and the body characterized in that the running tool further comprises an upper stem port located in and extending radially through the stem, an upper body port located in and radially extending through the body, the piston being downwardly moveable relative to the stem in response to fluid pressure applied to the axial passage, when the upper ports (15, 33) are aligned while in the packoff set position to thereby set a packoff seal, the packoff seal being carried by the piston and positioned along the lower end portion of the piston. an elongated stem having an axial passage, threads in its outer surface, and a downward facing shoulder positioned adjacent thereto; a body surrounding and threaded to the stem such that rotation of the stem causes the stem to translate axially relative to the body from a run-in position to a packoff set position, then to a packoff test position, and finally to a release position; an engagement element, carried by the body and adapted to be engaged with the hanger, the axial movement of the stem relative to the body to the run-in position causing the shoulder to contact the engagement element and move it radially outward and in engagement with the hanger to releasably secure the running tool to the hanger; a piston, substantially surrounding portions of the stem and the body characterized in that the running tool further comprises an upper stem port located in and extending radially through the stem, an upper body port located in and radially extending through the body, the piston being downwardly moveable relative to the stem in response to fluid pressure applied to the axial passage, when the upper ports (15, 33) are aligned while in the packoff set position to thereby set a packoff seal, the packoff seal being carried by the piston and positioned along the lower end portion of the piston.
An electric shaver comprising: - a cutter unit; - an electric motor arranged to drive the cutter unit; - a load detector arranged to measure at least one electric parameter indicative of a power consumption of the motor to obtain a measured value; - a controller arranged to control an average voltage across the motor as a function of the measured value, the controller being arranged to switch the average voltage between a first average voltage level and a second average voltage level, the second average voltage level being higher than the first average voltage level, characterised in that the controller is arranged to: - switch the average voltage from the first average voltage level to the second average voltage level if the measured value exceeds a first threshold value (TH TH), and - switch the average voltage from the second average voltage level back to the first average voltage level if the measured value has stayed below a second threshold value (TH_TL) during a predefined time period after a point in time at which the measured value has fallen below said second threshold value (TH_TL), wherein said second threshold value (TH_TL) is higher than said first threshold value (TH_TH). - a cutter unit; - an electric motor arranged to drive the cutter unit; - a load detector arranged to measure at least one electric parameter indicative of a power consumption of the motor to obtain a measured value; - a controller arranged to control an average voltage across the motor as a function of the measured value, the controller being arranged to switch the average voltage between a first average voltage level and a second average voltage level, the second average voltage level being higher than the first average voltage level, characterised in that the controller is arranged to: - switch the average voltage from the first average voltage level to the second average voltage level if the measured value exceeds a first threshold value (TH TH), and - switch the average voltage from the second average voltage level back to the first average voltage level if the measured value has stayed below a second threshold value (TH_TL) during a predefined time period after a point in time at which the measured value has fallen below said second threshold value (TH_TL), wherein said second threshold value (TH_TL) is higher than said first threshold value (TH_TH). - switch the average voltage from the first average voltage level to the second average voltage level if the measured value exceeds a first threshold value (TH TH), and - switch the average voltage from the second average voltage level back to the first average voltage level if the measured value has stayed below a second threshold value (TH_TL) during a predefined time period after a point in time at which the measured value has fallen below said second threshold value (TH_TL), wherein said second threshold value (TH_TL) is higher than said first threshold value (TH_TH).
Calibration device for calibrating at least one second sensor (2A,2B,2C) comprising: - at least one impact plate, characterized in that the device also comprises: - at least one first sensor embedded into a first moving object, said first sensor measuring the way, velocity, form of movement and impact strength directly in the first moving object hitting the impact plate, - at least one second moving object, - at least a first radio-frequency identification transmitter with antenna embedded into the first sensor, - wherein the at least one second sensor (2A,2B,2C) is attached directly underneath the plate for determining characteristics of the first moving object, when hitting the impact plate, - at least one first means for receiving first data provided by the first sensor, before and while hitting the impact plate, and for receiving second data provided by the second sensor (2A,2B,2C), when hitting the impact plate, - at least a second radio-frequency identification transmitter with antenna embedded into the first means, - the first sensor and the second sensor (2A,2B,2C) are interacting with the first means, - at least one second means for analysing the data provided by the first sensor and by the second sensor (2A,2B,2C) and for calibrating the second sensor (2A,2B,2C) located on the impact plate and determining the characteristics of at least one second moving object when hitting the impact plate, - a high speed camera is configured to assess the vibration and the deformation parameters due to the impacts of the first and second moving objects on the impact plate. - at least one impact plate, - at least one first sensor embedded into a first moving object, said first sensor measuring the way, velocity, form of movement and impact strength directly in the first moving object hitting the impact plate, - at least one second moving object, - at least a first radio-frequency identification transmitter with antenna embedded into the first sensor, - wherein the at least one second sensor (2A,2B,2C) is attached directly underneath the plate for determining characteristics of the first moving object, when hitting the impact plate, - at least one first means for receiving first data provided by the first sensor, before and while hitting the impact plate, and for receiving second data provided by the second sensor (2A,2B,2C), when hitting the impact plate, - at least a second radio-frequency identification transmitter with antenna embedded into the first means, - the first sensor and the second sensor (2A,2B,2C) are interacting with the first means, - at least one second means for analysing the data provided by the first sensor and by the second sensor (2A,2B,2C) and for calibrating the second sensor (2A,2B,2C) located on the impact plate and determining the characteristics of at least one second moving object when hitting the impact plate, - a high speed camera is configured to assess the vibration and the deformation parameters due to the impacts of the first and second moving objects on the impact plate.
A method for transmitting information from an operating device for lamps, in particular a converter for LEDs, to a control unit connected to the operating device via voltage supply lines (8, 9), having the following steps: - The control unit preferably periodically temporarily interrupts an AC supply voltage (Vin) of the operating device, and - the operating device applies a voltage signal to the voltage supply lines (8, 9) during the interruption of the AC supply voltage (Vin), which is evaluated by the control unit as information, wherein the information transmission from the operating device to the control unit is transmitted digitally coded, in that the operating device selectively applies three discretely different voltage signals to the voltage supply lines (8, 9) during the interruption of the AC supply voltage (Vin). - The control unit preferably periodically temporarily interrupts an AC supply voltage (Vin) of the operating device, and - the operating device applies a voltage signal to the voltage supply lines (8, 9) during the interruption of the AC supply voltage (Vin), which is evaluated by the control unit as information,
A hollow body having a coupling device thereon, the coupling device comprising a valve interconnector configured for coupling to a receiver interconnector, wherein the valve interconnector comprises: (i) a neck having an internal surface and an external surface, the internal surface defining a longitudinal passageway through the neck, the neck having an internal end for coupling, and an external end securing the hollow body to valve interconnector; (ii) a valve assembly inside the longitudinal passageway through the neck, the valve assembly comprising a valve head, a valve stem, and a valve retainer, the valve head being biased away from the valve retainer and toward a valve seat inward of the valve head, the valve head being moveable from a closed position to an open position; (iii) a retention flange extending radially outward from the neck, characterized in that the valve interconnector further comprises a base cap secured to the neck, and wherein the base cap comprises: (a) a radially extending base cap head portion covering the internal end of the neck, (b) an axially extending base cap exterior tube portion covering a portion of the exterior surface of the neck, and (c) an axially extending base cap interior tube portion extending into the primary longitudinal passageway through the neck, the interior tube portion having an end providing the valve seat; and in that the valve interconnector further comprises a resilient sealing ring inside the interior tube portion of the base cap. (i) a neck having an internal surface and an external surface, the internal surface defining a longitudinal passageway through the neck, the neck having an internal end for coupling, and an external end securing the hollow body to valve interconnector; (ii) a valve assembly inside the longitudinal passageway through the neck, the valve assembly comprising a valve head, a valve stem, and a valve retainer, the valve head being biased away from the valve retainer and toward a valve seat inward of the valve head, the valve head being moveable from a closed position to an open position; (iii) a retention flange extending radially outward from the neck, (a) a radially extending base cap head portion covering the internal end of the neck, (b) an axially extending base cap exterior tube portion covering a portion of the exterior surface of the neck, and (c) an axially extending base cap interior tube portion extending into the primary longitudinal passageway through the neck, the interior tube portion having an end providing the valve seat;