mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting data between a user terminal and another apparatus, the method comprising: generating a signal for driving an electromagnetic functional unit, the electromagnetic functional unit being an actuator of a loudspeaker of the user terminal or the electromagnetic functional unit being an electromagnetic oscillating circuit connected to the user terminal , driving the electromagnetic functional unit by the generated signal to produce, by the electromagnetic functional unit, a magnetic signal which carries first data to be transmitted from the user terminal to the other apparatus, detecting another signal output by the other apparatus , the other signal carrying second data to be transmitted from the other apparatus to the user terminal , wherein the magnetic signal and the other signal differ in the physical signal type; characterized in that the first data are configuration data for configuring the other apparatus , the method further comprises a step of detecting the magnetic signal by an electromagnetic oscillating circuit of the other apparatus to receive the first data, the method further comprises a step of configuring the other apparatus based on the received first data. generating a signal for driving an electromagnetic functional unit, the electromagnetic functional unit being an actuator of a loudspeaker of the user terminal or the electromagnetic functional unit being an electromagnetic oscillating circuit connected to the user terminal , driving the electromagnetic functional unit by the generated signal to produce, by the electromagnetic functional unit, a magnetic signal which carries first data to be transmitted from the user terminal to the other apparatus, detecting another signal output by the other apparatus , the other signal carrying second data to be transmitted from the other apparatus to the user terminal , wherein the magnetic signal and the other signal differ in the physical signal type; characterized in that the first data are configuration data for configuring the other apparatus , the method further comprises a step of detecting the magnetic signal by an electromagnetic oscillating circuit of the other apparatus to receive the first data, the method further comprises a step of configuring the other apparatus based on the received first data.
An automatic security lock of the type comprising a box-like body containing respective actuation lever systems for at least one bolt , said lever systems being controlled by a respective security cylinder associated with a key and with at least one movement actuator, characterized in that said lever systems comprise an actuation rod for the at least one bolt , a sliding slider being arranged above said cylinder in substantial alignment with the respective bit of said cylinder , said slider comprising a seat for said bit and an end head suitable to abut against an inclined plane formed on a surface of said actuation rod , upon a rotation of said bit said slider translating up to abutment and forcing on the inclined plane of said rod with consequent translation of said rod in the configuration of complete extraction of said at least one bolt .
Beverage mixing device comprising - a mixing body defining a mixing chamber , - at least one or a plurality of fluid inlets for supplying a fluid (L, W, A, S) into the mixing chamber , - a discharge opening to discharge a liquid (P) from the mixing chamber , - a sealing element being moveably provided between a closed position for closing the discharge opening and an open position for releasing the discharge opening to allow a liquid (P) in the mixing chamber be discharged via the discharge opening , the beverage mixing device is characterized in that it comprises - an evacuation outlet for evacuating the mixing chamber by a fluid (G) be introduced into the mixing chamber via the at least one or the plurality of fluid inlets when the discharge opening is closed by the sealing element . - a mixing body defining a mixing chamber , - at least one or a plurality of fluid inlets for supplying a fluid (L, W, A, S) into the mixing chamber , - a discharge opening to discharge a liquid (P) from the mixing chamber , - a sealing element being moveably provided between a closed position for closing the discharge opening and an open position for releasing the discharge opening to allow a liquid (P) in the mixing chamber be discharged via the discharge opening , - an evacuation outlet for evacuating the mixing chamber by a fluid (G) be introduced into the mixing chamber via the at least one or the plurality of fluid inlets when the discharge opening is closed by the sealing element .
A method for manufacturing a heat dissipation structure of an electronic element , comprising: covering a periphery of the electronic element with a heat dissipation cover , and hermetically connecting the heat dissipation cover to a substrate on which the electronic element is installed, wherein the heat dissipation cover is provided with a through hole , and an inner wall of the heat dissipation cover is provided with a plurality of electrodes ; injecting a liquid metal through the through hole into an accommodating cavity enclosed by the substrate and the heat dissipation cover until the entire accommodating cavity is filled, and during this period, energizing the electrodes , causing a potential difference therebetween so that a current flows through the liquid metal to reduce surface tension of the liquid metal , thereby preventing gaps between the electronic element and the heat dissipation cover; and sealing the through hole . covering a periphery of the electronic element with a heat dissipation cover , and hermetically connecting the heat dissipation cover to a substrate on which the electronic element is installed, wherein the heat dissipation cover is provided with a through hole , and an inner wall of the heat dissipation cover is provided with a plurality of electrodes ; injecting a liquid metal through the through hole into an accommodating cavity enclosed by the substrate and the heat dissipation cover until the entire accommodating cavity is filled, and during this period, energizing the electrodes , causing a potential difference therebetween so that a current flows through the liquid metal to reduce surface tension of the liquid metal , thereby preventing gaps between the electronic element and the heat dissipation cover; and sealing the through hole .
A ground fault detection device comprising: line and neutral conductors configured to connect an AC power source and a load; a differential current transformer comprising: a toroid , through which the line and neutral conductors pass, a first secondary winding wound on the toroid configured to generate a current in response to an imbalance of magnetic flux in the toroid , and a second secondary winding wound on the toroid ; a differential ground fault detector electrically connected to the first secondary winding of the differential current transformer and configured to compare the current generated in the first secondary winding to a predetermined threshold; a controller configured to control a test stimulus signal to be generated in the second secondary winding ; characterised in that the ground fault detection device comprises a DC power supply electrically connected to the second secondary winding wound on the toroid of the differential current transformer , wherein the controller is configured to control the DC power supply to generate directly the test stimulus signal in the second secondary winding from the DC power supply . line and neutral conductors configured to connect an AC power source and a load; a differential current transformer comprising: a toroid , through which the line and neutral conductors pass, a first secondary winding wound on the toroid configured to generate a current in response to an imbalance of magnetic flux in the toroid , and a second secondary winding wound on the toroid ; a toroid , through which the line and neutral conductors pass, a first secondary winding wound on the toroid configured to generate a current in response to an imbalance of magnetic flux in the toroid , and a second secondary winding wound on the toroid ; a differential ground fault detector electrically connected to the first secondary winding of the differential current transformer and configured to compare the current generated in the first secondary winding to a predetermined threshold; a controller configured to control a test stimulus signal to be generated in the second secondary winding ; characterised in that the ground fault detection device comprises a DC power supply electrically connected to the second secondary winding wound on the toroid of the differential current transformer , wherein the controller is configured to control the DC power supply to generate directly the test stimulus signal in the second secondary winding from the DC power supply .
Agitator ball mill having a grinding chamber which has a casing , further having a rotatably mounted agitator shaft which extends into the grinding chamber and on which at least one agitator element is arranged inside the grinding chamber , having an inlet for supplying material to be ground and grinding bodies to the grinding chamber as well as an outlet for removal of the ground material, and having an induction heater for the material to be ground located in the grinding chamber , the induction heater comprising an inductor and a susceptor, wherein the at least one agitator element comprises the susceptor, wherein the inductor comprises at least one coil (20; 21, 22, 23) which is arranged outside the casing of the grinding chamber and encompasses the grinding chamber , and wherein the casing of the grinding chamber consists of an electrically and magnetically non-conductive material.
An electric motor, comprising: a stator comprising a plurality of teeth protruding from an inner surface; and a rotor , including a plurality of poles, arranged to rotate in the stator , wherein the rotor includes a bridge part disposed between poles, and a first rotor groove and a second rotor groove at opposite first and second sides of the bridge part , and wherein each of the teeth of the stator include a first stator groove and a second stator groove that face the first rotor groove and the second rotor groove respectively, and characterized in that an angle θ2, between a first virtual line defining a first end of the first stator groove closest to the bridge part and a central virtual line, is equal to or larger than an angle θ1, between a second virtual line defining a first end of the first rotor groove closest to the bridge part and the central virtual line, wherein the first virtual line passes through the first end of the first stator groove and a centre of the rotor , the second virtual line passes through the first end of the first rotor groove and the centre of the rotor , and the central virtual line passes through the centre of the rotor , a centre of a connection surface between the first and second rotor grooves and a centre of the tooth . a stator comprising a plurality of teeth protruding from an inner surface; and a rotor , including a plurality of poles, arranged to rotate in the stator , wherein the rotor includes a bridge part disposed between poles, and a first rotor groove and a second rotor groove at opposite first and second sides of the bridge part , and wherein each of the teeth of the stator include a first stator groove and a second stator groove that face the first rotor groove and the second rotor groove respectively, and characterized in that an angle θ2, between a first virtual line defining a first end of the first stator groove closest to the bridge part and a central virtual line, is equal to or larger than an angle θ1, between a second virtual line defining a first end of the first rotor groove closest to the bridge part and the central virtual line, wherein the first virtual line passes through the first end of the first stator groove and a centre of the rotor , the second virtual line passes through the first end of the first rotor groove and the centre of the rotor , and the central virtual line passes through the centre of the rotor , a centre of a connection surface between the first and second rotor grooves and a centre of the tooth .
A method of determining a distance between a first device and a second device at the second device , the method comprising: based on a first modulated message being received from the first device , identifying a first time when the first modulated message is received at the second device ; transmitting a second modulated message to the first device in response to the first modulated message and identifying a second time when the second modulated message is transmitted from the second device ; receiving a third modulated message comprising a first time difference from the first device , wherein the first time difference is a difference between a third time when the first modulated message is transmitted from the first device and a fourth time when the second modulated message is received at the first device ; determining the distance between the first device and the second device based on a difference between the first time difference and a second time difference, wherein the second time difference is a difference between the first time and the second time; and locking or unlocking the second device according to the distance between the first device and the second device . based on a first modulated message being received from the first device , identifying a first time when the first modulated message is received at the second device ; transmitting a second modulated message to the first device in response to the first modulated message and identifying a second time when the second modulated message is transmitted from the second device ; receiving a third modulated message comprising a first time difference from the first device , wherein the first time difference is a difference between a third time when the first modulated message is transmitted from the first device and a fourth time when the second modulated message is received at the first device ; determining the distance between the first device and the second device based on a difference between the first time difference and a second time difference, wherein the second time difference is a difference between the first time and the second time; and locking or unlocking the second device according to the distance between the first device and the second device .
A computer-implemented method comprising: receiving audio data representing a voice input; identifying a first user as providing the voice input, the identification being based on a comparison of characteristics of the received audio data with speaker profile data of a plurality of speakers, including the first user, for whom speaker profile data is stored; determining an instruction from the received audio data, wherein the instruction references a second user other than the first user and includes a speaker-relative signifier, and wherein determining the instruction includes determining a referent of the speaker-relative signifier based on second stored speaker profile data comprising data related to customization information associated with the second user; and causing an action indicated by the instruction to be performed. receiving audio data representing a voice input; identifying a first user as providing the voice input, the identification being based on a comparison of characteristics of the received audio data with speaker profile data of a plurality of speakers, including the first user, for whom speaker profile data is stored; determining an instruction from the received audio data, wherein the instruction references a second user other than the first user and includes a speaker-relative signifier, and wherein determining the instruction includes determining a referent of the speaker-relative signifier based on second stored speaker profile data comprising data related to customization information associated with the second user; and causing an action indicated by the instruction to be performed.
A reduction cell electrode for electrolytically producing aluminum from the aluminum oxide dissolved in molten electrolyte, consisting of an electrode base an intermediate layer applied to the electrode base and a surface coating applied to the intermediate layer ; wherein the electrode base is made of structural carbon steel, heat-resistant and fire-resistant steel, or heat-resistant and fire-resistant metal alloy, and said heat-resistant and fire-resistant metal alloy is selected from the group consisting of: iron, nickel, manganese, titanium, tantalum, zirconium, chromium, niobium, cobalt, vanadium, and alloys thereof; wherein the intermediate layer consists of a composite material containing 5% to less than 90% by mass of refractory ceramics and at least one metal having a melting temperature exceeding 1000°C, which forms refractory intermetallic compounds upon interaction with aluminum, or at least one alloy made from metals each having a melting point temperature exceeding 1000°C; wherein the surface coating is based on or made from refractory ceramics; and wherein the refractory ceramics in the composite material of the intermediate layer and the refractory ceramics in the surface coating are selected from the group consisting of borides and carbides of titanium, zirconium, niobium, tantalum, tungsten, molybdenum, boron carbides and mixtures thereof; wherein the at least one metal having a melting temperature exceeding 1000°C is selected from the group consisting of: iron, nickel, manganese, titanium, tantalum, zirconium, chromium, niobium, cobalt, vanadium, and alloys thereof. wherein the electrode base is made of structural carbon steel, heat-resistant and fire-resistant steel, or heat-resistant and fire-resistant metal alloy, and said heat-resistant and fire-resistant metal alloy is selected from the group consisting of: iron, nickel, manganese, titanium, tantalum, zirconium, chromium, niobium, cobalt, vanadium, and alloys thereof; wherein the intermediate layer consists of a composite material containing 5% to less than 90% by mass of refractory ceramics and at least one metal having a melting temperature exceeding 1000°C, which forms refractory intermetallic compounds upon interaction with aluminum, or at least one alloy made from metals each having a melting point temperature exceeding 1000°C; wherein the surface coating is based on or made from refractory ceramics; and wherein the refractory ceramics in the composite material of the intermediate layer and the refractory ceramics in the surface coating are selected from the group consisting of borides and carbides of titanium, zirconium, niobium, tantalum, tungsten, molybdenum, boron carbides and mixtures thereof; wherein the at least one metal having a melting temperature exceeding 1000°C is selected from the group consisting of: iron, nickel, manganese, titanium, tantalum, zirconium, chromium, niobium, cobalt, vanadium, and alloys thereof.
An information processing apparatus comprising: a pasting unit configured to paste a full-spherical panoramic image obtained by imaging an omnidirectional range, along an inner wall (A) of a virtual three-dimensional sphere (CS) arranged in a virtual three-dimensional space; an acquiring unit configured to acquire an embedding image to be embedded in the full-spherical panoramic image ; a generating unit configured to generate a planar image obtained by pasting the embedding image on a two-dimensional plane; a calculating unit configured to acquire a size of the planar image and calculate, as a function of the acquired size of the planar image and a radius of the virtual three-dimensional sphere (CS), a movement amount (h), and further configured to calculate, as an arrangement position for arranging the planar image , a position at which the planar image is moved from the inner wall (A) towards the center point (P) by the movement amount (h) along a line-of-sight direction from the center point (P) to the inner wall (A), such that the entire planar image is accommodated in the virtual three-dimensional sphere; and a display control unit configured to display a display image on a display unit , the display image being obtained by converting a state in which the full-spherical panoramic image is pasted along the inner wall (A) of the virtual three-dimensional sphere (CS), and the planar image is arranged at the arrangement position, to a two-dimensional image viewed from the center point (P) in the line-of-sight direction. a pasting unit configured to paste a full-spherical panoramic image obtained by imaging an omnidirectional range, along an inner wall (A) of a virtual three-dimensional sphere (CS) arranged in a virtual three-dimensional space; an acquiring unit configured to acquire an embedding image to be embedded in the full-spherical panoramic image ; a generating unit configured to generate a planar image obtained by pasting the embedding image on a two-dimensional plane; a calculating unit configured to acquire a size of the planar image and calculate, as a function of the acquired size of the planar image and a radius of the virtual three-dimensional sphere (CS), a movement amount (h), and further configured to calculate, as an arrangement position for arranging the planar image , a position at which the planar image is moved from the inner wall (A) towards the center point (P) by the movement amount (h) along a line-of-sight direction from the center point (P) to the inner wall (A), such that the entire planar image is accommodated in the virtual three-dimensional sphere; and a display control unit configured to display a display image on a display unit , the display image being obtained by converting a state in which the full-spherical panoramic image is pasted along the inner wall (A) of the virtual three-dimensional sphere (CS), and the planar image is arranged at the arrangement position, to a two-dimensional image viewed from the center point (P) in the line-of-sight direction.