mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an inductive conductivity measuring device, wherein the conductivity measuring device has a transmitting coil and a receiving coil, the transmitting coil has an input and the transmitting coil and the receiving coil are inductively coupled to one another by an electrically conductive medium and wherein an electrical preset alternating signal (U V) is generated and fed to the input of the transmitting coil, characterized in that a frequency of the preset alternating signal (Uv) is varied in a frequency interval, that, in the frequency interval, a frequency-dependent minimum input impedance at the input of the transmitting coil is determined using a response alternating signal (U M), that a minimum frequency of the response alternating signal (U M) is determined at the minimum input impedance at the input of the transmitting coil, and that a conductivity of the medium is determined using the minimum frequency of the response alternating signal (U M). wherein the conductivity measuring device has a transmitting coil and a receiving coil, the transmitting coil has an input and the transmitting coil and the receiving coil are inductively coupled to one another by an electrically conductive medium and wherein an electrical preset alternating signal (U V) is generated and fed to the input of the transmitting coil, characterized in that a frequency of the preset alternating signal (Uv) is varied in a frequency interval, that, in the frequency interval, a frequency-dependent minimum input impedance at the input of the transmitting coil is determined using a response alternating signal (U M), that a minimum frequency of the response alternating signal (U M) is determined at the minimum input impedance at the input of the transmitting coil, and that a conductivity of the medium is determined using the minimum frequency of the response alternating signal (U M).
A vacuum cleaner comprising: a suction channel portion (210, 210a) which comprises one end removably connectable to a vacuum cleaning unit and the other end connectable to a suction nozzle (110, 110a, 110b, 810, 910), thereby guiding dirt drawn in through the suction nozzle to the vacuum cleaning unit; an accessory (300, 300a-g) that is received in a receiving recess (213, 213a, 213b) formed on one side of the suction channel portion; a hinge portion that is disposed in the suction channel portion and supports the accessory to pivot by a predetermined angle; and an unlocking portion (500, 600) that is disposed in the suction channel portion to lock and unlock the accessory with respect to the receiving recess. a suction channel portion (210, 210a) which comprises one end removably connectable to a vacuum cleaning unit and the other end connectable to a suction nozzle (110, 110a, 110b, 810, 910), thereby guiding dirt drawn in through the suction nozzle to the vacuum cleaning unit; an accessory (300, 300a-g) that is received in a receiving recess (213, 213a, 213b) formed on one side of the suction channel portion; a hinge portion that is disposed in the suction channel portion and supports the accessory to pivot by a predetermined angle; and an unlocking portion (500, 600) that is disposed in the suction channel portion to lock and unlock the accessory with respect to the receiving recess.
An infrared transmitter (1-a) that transmits a signal by changing a luminance of an infrared emitting LED, the infrared transmitter (1-a) comprising: a transmission signal generating unit (11-a) adapted to generate an electrical transmission signal; a biasing voltage generating unit (13-a) adapted to generate a biasing voltage; a signal/voltage mixing unit (12-a) adapted to mix the transmission signal and the biasing voltage to generate a composite voltage; a voltage to current conversion unit adapted to convert the composite voltage into a current, and a light signal transmitting unit including said infrared emitting LED and adapted to receive and to use the current from the voltage to current conversion unit to drive the LED; characterised by a switching unit (A, B) that is adapted to switch a number of channels of the transmission signal; and in that the biasing voltage generating unit is adapted to vary the biasing voltage depending on the number of channels of the transmission signal that is switched by the switching unit. a transmission signal generating unit (11-a) adapted to generate an electrical transmission signal; a biasing voltage generating unit (13-a) adapted to generate a biasing voltage; a signal/voltage mixing unit (12-a) adapted to mix the transmission signal and the biasing voltage to generate a composite voltage; a voltage to current conversion unit adapted to convert the composite voltage into a current, and a light signal transmitting unit including said infrared emitting LED and adapted to receive and to use the current from the voltage to current conversion unit to drive the LED; characterised by a switching unit (A, B) that is adapted to switch a number of channels of the transmission signal; and in that the biasing voltage generating unit is adapted to vary the biasing voltage depending on the number of channels of the transmission signal that is switched by the switching unit.
A friction element comprising a friction lining (12, 13), which is arranged on a lining carrier (14, 15) and is connected to the lining carrier (14, 15), as well as a carrier element, in particular a spring element (16, 17), in which the lining carrier (14, 15) is connected to the carrier element, in which further for the connection of the lining carrier (14, 15) to the carrier element a connecting element (24, 25) is used which is guided through a recess (26, 37) in the lining carrier (14, 15) and a recess (27, 38) in the carrier element, wherein the connecting element (24, 25) comprises a connecting element head (28, 39), which has a greater external dimension (30, 41) than an internal dimension (31, 42) of the recess (26, 37) in the lining carrier (14, 15), so that the connecting element head (28, 39) is resting on the lining carrier (14, 15), wherein the lining carrier (14, 15) in the region of the connecting element head (28, 39) comprises a shoulder (48, 49), wherein an internal dimension (50, 51) of the shoulder (48, 49) is greater than the external dimension (30, 41) of the connecting element head (28, 39), so that the connecting element head (28, 39) is received at least partly in said shoulder (48, 49), characterized in that the recess (27, 38) in the carrier element is greater than the recess (26, 37) in the lining carrier (14, 15) and the shoulder (48, 49) of the lining carrier (14, 15) in the region of the recess (27, 38) in the carrier element extends into this recess (27, 38).
A method of manufacturing an alkoxysilane compound, comprising: adding an alcohol to a silazane-based compound represented by the following Formula 1 and allowing the alcohol to react with the silazane-based compound to prepare a first mixture comprising an alkoxysilane compound and ammonia; adding an acid with pKa 2 to 6.5 to the first mixture and allowing the acid to react with the first mixture to prepare a second mixture comprising the alkoxysilane compound and an ammonium salt; adding an aqueous solvent to the second mixture to dissolve the ammonium salt; and separating and removing the aqueous layer, in which the ammonium salt is dissolved, to obtain the alkoxysilane compound: wherein the alcohol is a compound represented by the following Formula 2, and the alkoxysilane compound is a compound represented by the following Formula 3: [Formula 2] R 3 OH [Formula 3] (R 1) n (R 2) 3-n Si-O-R 3 wherein R 1 and R 3 are each independently an alkyl group having 1 to 8 carbon atoms, R 2 is a hydrogen atom or an alkyl group having 1 to 8 carbon atoms, and n is an integer ranging from 1 to 3. adding an alcohol to a silazane-based compound represented by the following Formula 1 and allowing the alcohol to react with the silazane-based compound to prepare a first mixture comprising an alkoxysilane compound and ammonia; adding an acid with pKa 2 to 6.5 to the first mixture and allowing the acid to react with the first mixture to prepare a second mixture comprising the alkoxysilane compound and an ammonium salt; adding an aqueous solvent to the second mixture to dissolve the ammonium salt; and separating and removing the aqueous layer, in which the ammonium salt is dissolved, to obtain the alkoxysilane compound: wherein the alcohol is a compound represented by the following Formula 2, and the alkoxysilane compound is a compound represented by the following Formula 3: [Formula 2] R 3 OH [Formula 3] (R 1) n (R 2) 3-n Si-O-R 3 wherein R 1 and R 3 are each independently an alkyl group having 1 to 8 carbon atoms, R 2 is a hydrogen atom or an alkyl group having 1 to 8 carbon atoms, and n is an integer ranging from 1 to 3. wherein the alcohol is a compound represented by the following Formula 2, and the alkoxysilane compound is a compound represented by the following Formula 3: [Formula 2] R 3 OH [Formula 3] (R 1) n (R 2) 3-n Si-O-R 3 wherein R 1 and R 3 are each independently an alkyl group having 1 to 8 carbon atoms, R 2 is a hydrogen atom or an alkyl group having 1 to 8 carbon atoms, and n is an integer ranging from 1 to 3.
A battery cell, comprising: an adapting member, comprising a first connection portion for connecting an electrode terminal and a second connection portion for connecting an electrode assembly, wherein the first connection portion and the second connection portion are dividedly set and connected to each other, and the first connection portion is in a multilayer structure and comprises multiple layers of conductive sheets provided in a stacking manner, the second connection portion is in a single-layer structure, and a minimum thickness of the first connection portion is greater than a maximum thickness of the second connection portion; wherein a minimum thickness of the second connection portion is greater than a maximum thickness of any of the multiple layers of conductive sheets. an adapting member, comprising a first connection portion for connecting an electrode terminal and a second connection portion for connecting an electrode assembly, wherein the first connection portion and the second connection portion are dividedly set and connected to each other, and the first connection portion is in a multilayer structure and comprises multiple layers of conductive sheets provided in a stacking manner, the second connection portion is in a single-layer structure, and a minimum thickness of the first connection portion is greater than a maximum thickness of the second connection portion; wherein a minimum thickness of the second connection portion is greater than a maximum thickness of any of the multiple layers of conductive sheets.
A line clip of a spinning reel to be mounted to a spool of the spinning reel, the line clip comprising: a mounting member configured to be mounted to the spool; and a clip member disposed on the mounting member, and being configured to hold a fishing line between the clip member and a surface of the spool, wherein the clip member comprises: a mounting end portion having the mounting member attached thereto, the mounting end portion having a predefined width in a circumferential direction of the spool, an introduction end portion configured to have the fishing line introduced thereto, and a movement restriction portion disposed between the mounting end portion and the introduction end portion, having a width (W2, W3) that is different from the predefined width, and being configured to restrict the fishing line from moving to an introduction section side, wherein the movement restriction portion has a projection section with a width wider than the predefined width and a constricted section with a width narrower than the predefined width in the circumferential direction of the spool, and wherein the constricted section is disposed between the projection section and the mounting end portion. a mounting member configured to be mounted to the spool; and a clip member disposed on the mounting member, and being configured to hold a fishing line between the clip member and a surface of the spool, wherein the clip member comprises: a mounting end portion having the mounting member attached thereto, the mounting end portion having a predefined width in a circumferential direction of the spool, an introduction end portion configured to have the fishing line introduced thereto, and a movement restriction portion disposed between the mounting end portion and the introduction end portion, having a width (W2, W3) that is different from the predefined width, and being configured to restrict the fishing line from moving to an introduction section side, wherein the movement restriction portion has a projection section with a width wider than the predefined width and a constricted section with a width narrower than the predefined width in the circumferential direction of the spool, and wherein the constricted section is disposed between the projection section and the mounting end portion. a mounting end portion having the mounting member attached thereto, the mounting end portion having a predefined width in a circumferential direction of the spool, an introduction end portion configured to have the fishing line introduced thereto, and a movement restriction portion disposed between the mounting end portion and the introduction end portion, having a width (W2, W3) that is different from the predefined width, and being configured to restrict the fishing line from moving to an introduction section side, wherein the movement restriction portion has a projection section with a width wider than the predefined width and a constricted section with a width narrower than the predefined width in the circumferential direction of the spool, and wherein the constricted section is disposed between the projection section and the mounting end portion.
A method of manufacturing a cellulose product having a non-flat product shape by a pressure moulding apparatus comprising a forming mould, the forming mould having a forming surface defining said product shape, comprising the steps of: arranging a cellulose blank containing less than 45 weight percent water in said forming mould; heating said cellulose blank to a forming temperature in the range of 100°C to 200°C; and pressing, said cellulose blank by means of said forming mould with a forming pressure acting on the cellulose blank across said forming surface, said forming pressure being in the range of 1 MPa to 100 MPa, wherein said forming mould comprises a massive flexible membrane which is applying the forming pressure on the cellulose blank when form in the cellulose product, wherein the massive flexible membrane is constructed with a thick membrane structure or made of a homogeneous body of a flexible material. arranging a cellulose blank containing less than 45 weight percent water in said forming mould; heating said cellulose blank to a forming temperature in the range of 100°C to 200°C; and pressing, said cellulose blank by means of said forming mould with a forming pressure acting on the cellulose blank across said forming surface, said forming pressure being in the range of 1 MPa to 100 MPa, wherein said forming mould comprises a massive flexible membrane which is applying the forming pressure on the cellulose blank when form in the cellulose product, wherein the massive flexible membrane is constructed with a thick membrane structure or made of a homogeneous body of a flexible material.
A speaker comprising: a housing including a bottom plate; a multi-magnet structure including at least an inner magnet and an outer magnet; a voice coil suspended from a membrane into a gap formed between the inner magnet and the outer magnet; and a spider attached to the membrane and suspended at least partially by the inner magnet, the spider configured to stabilize the membrane throughout a range of movement occurring in response to forces generated by the voice coil and the multi-magnet structure; wherein the inner magnet comprises multiple inner magnets and the outer magnet comprises multiple outer magnets, the multiple outer magnets being positioned at locations external to a perimeter of the voice coil and the multiple inner magnets being positioned at locations internal to a perimeter of the voice coil, wherein each of the multiple outer magnets are arranged on the bottom plate attached to the housing, the spider and voice coil being suspended above the bottom plate; wherein the multiple outer magnets extend beyond a perimeter of the bottom plate, and wherein the multiple outer magnets extend into the housing. a housing including a bottom plate; a multi-magnet structure including at least an inner magnet and an outer magnet; a voice coil suspended from a membrane into a gap formed between the inner magnet and the outer magnet; and a spider attached to the membrane and suspended at least partially by the inner magnet, the spider configured to stabilize the membrane throughout a range of movement occurring in response to forces generated by the voice coil and the multi-magnet structure; wherein the inner magnet comprises multiple inner magnets and the outer magnet comprises multiple outer magnets, the multiple outer magnets being positioned at locations external to a perimeter of the voice coil and the multiple inner magnets being positioned at locations internal to a perimeter of the voice coil, wherein each of the multiple outer magnets are arranged on the bottom plate attached to the housing, the spider and voice coil being suspended above the bottom plate; wherein the multiple outer magnets extend beyond a perimeter of the bottom plate, and wherein the multiple outer magnets extend into the housing.
Dried pasta in the form of a tortiglione, i.e. shaped as a hollow cylindrical tube, which tube has an outer diameter of between 8 and 14 mm and has a plurality of ridges (1', 1") on its outer surface, said ridges being oriented in the manner of a helix with an angle of inclination of between 40° and 58°.
Method for controlling an inverter by means of space vector modulation, in particular for controlling an electrical machine, wherein the inverter has a plurality of controllable switches and is designed to provide a polyphase electric current (IU, IV, IW), in particular in order to supply the electrical machine with electric current (IU, IV, IW) in a polyphase manner, wherein a nominal current space vector (I1*) having a nominal phase angle (alpha1) and a nominal amplitude is predefined, wherein the inverter is controlled such that a plurality of different consecutive switching states (V0-V7) of the switches are set in order to provide the electric current (IU, IV, IW) in the form of a current space vector (I1*), characterized in that the inverter is controlled such that the current space vector (I2*) is provided with a phase angle (alpha2) which differs from the nominal phase angle (alpha1) in order to load the switches according to a nominal loading value (m).
An on-board drainage reservoir of an aircraft engine, the on-board reservoir including a first compartment with: a first intake passage for receiving fluid drained from the engine, a first closeable emptying passage, and a first quality sensor assembly for detecting at least one quality parameter of the fluid drained from the engine to the first comparment of the on-board reservoir. a first intake passage for receiving fluid drained from the engine, a first closeable emptying passage, and a first quality sensor assembly for detecting at least one quality parameter of the fluid drained from the engine to the first comparment of the on-board reservoir.
A module comprising at least two electrical energy storage assemblies, each storage assembly comprising: - a tubular element (21, 90) having a so-called side face (23, 94); - at least one cover (50, 80) intended to cap one of the ends of the tubular element, the cover comprising a covering wall (51, 52, 82) intended to cover said end of the tubular element, characterized in that the module further comprises a connecting body (60, 84) intended to connect the two assemblies electrically, the connecting body comprising one or more portions (64, 65), each portion being separate from at least one of the storage assemblies, the connecting body being not disposed on said at least one cover but extending between the two storage assemblies so that the height of each storage assembly connected to the connecting body is equal to the height of a storage assembly not having a connecting body. - a tubular element (21, 90) having a so-called side face (23, 94); - at least one cover (50, 80) intended to cap one of the ends of the tubular element, the cover comprising a covering wall (51, 52, 82) intended to cover said end of the tubular element,
An antenna (60, 60a, 60b, 60d, 60e, 60f, 70) comprising: a first conductor; a second conductor that faces the first conductor in a first direction; a third conductor that is located between the first conductor and the second conductor, apart from the first conductor and the second conductor, and extends in the first direction; a fourth conductor that is connected to the first conductor and the second conductor and extends in the first direction; and a feeding line that is electrically connected to the third conductor, wherein the first conductor and the second conductor are capacitively coupled via the third conductor, the third conductor is configured to function as a resonator between the first conductor and the second conductor, the resonator has electrically open ends in a third direction that is perpendicular to the first direction and to a second direction, the resonator is configured to have an artificial magnetic conductor character in the second direction such that the electrically open ends are seen as magnetic conductors, and the antenna (60, 60a, 60b, 60d, 60e, 60f, 70) is configured to be disposed in a bicycle component of a bicycle such that the fourth conductor faces the bicycle component. a first conductor; a second conductor that faces the first conductor in a first direction; a third conductor that is located between the first conductor and the second conductor, apart from the first conductor and the second conductor, and extends in the first direction; a fourth conductor that is connected to the first conductor and the second conductor and extends in the first direction; and a feeding line that is electrically connected to the third conductor, wherein the first conductor and the second conductor are capacitively coupled via the third conductor, the third conductor is configured to function as a resonator between the first conductor and the second conductor, the resonator has electrically open ends in a third direction that is perpendicular to the first direction and to a second direction, the resonator is configured to have an artificial magnetic conductor character in the second direction such that the electrically open ends are seen as magnetic conductors, and the antenna (60, 60a, 60b, 60d, 60e, 60f, 70) is configured to be disposed in a bicycle component of a bicycle such that the fourth conductor faces the bicycle component.