mhurhangee/patent-ind-claim-en huggingface dataset:
A level sender for a tank, comprising: a sensor device comprising: a board located in an upper region of the tank; a primary pressure sensor ; a reference pressure sensor ; and a correction pressure sensor ; wherein the board carries the primary, reference and correction pressure sensors; a primary tube that at least partially encloses the primary pressure sensor and that is configured to extend from the board in an upper region of the tank to a lower region of the tank ; a reference tube that at least partially encloses the reference pressure sensor and that is configured to extend from the board in the upper region to the lower region; and a correction tube that at least partially encloses the correction pressure sensor , wherein the correction tube is configured to extend from the board to upper region of the tank , and wherein the sensor device further comprises a processor on the board that is coupled to the primary , reference , and correction pressure sensors and is configured to determine a level of liquid within the tank based on pressure measurements within the primary , reference , and correction tubes . a sensor device comprising: a board located in an upper region of the tank; a primary pressure sensor ; a reference pressure sensor ; and a correction pressure sensor ; wherein the board carries the primary, reference and correction pressure sensors; a board located in an upper region of the tank; a primary pressure sensor ; a reference pressure sensor ; and a correction pressure sensor ; wherein the board carries the primary, reference and correction pressure sensors; a primary tube that at least partially encloses the primary pressure sensor and that is configured to extend from the board in an upper region of the tank to a lower region of the tank ; a reference tube that at least partially encloses the reference pressure sensor and that is configured to extend from the board in the upper region to the lower region; and a correction tube that at least partially encloses the correction pressure sensor , wherein the correction tube is configured to extend from the board to upper region of the tank , and wherein the sensor device further comprises a processor on the board that is coupled to the primary , reference , and correction pressure sensors and is configured to determine a level of liquid within the tank based on pressure measurements within the primary , reference , and correction tubes .
Foldable container, having a collapsed state and a deployed state , wherein the container comprises: - a base ; - a sidewall assembly comprising at least four side walls rotatably fixed to one another along their container edges , - a hinge , connecting one of the side walls to the base along a lower edge of said side wall; - a container cover , connected to one of the side walls , pivotable around an upper edge of said side wall; wherein the container has a substantially cuboid form in the deployed state , and the side walls are folded together in the collapsed state; the container cover is connected to said side wall by at least one kinematic chain ; the kinematic chain comprises n rigid links connected with n-1 kinematic chain joints , wherein n is at least 3; and characterised in that : a first rigid link is rigidly attached to said side wall ; a last rigid link is attached to the container cover via a slidable attachment . - a base ; - a sidewall assembly comprising at least four side walls rotatably fixed to one another along their container edges , - a hinge , connecting one of the side walls to the base along a lower edge of said side wall; - a container cover , connected to one of the side walls , pivotable around an upper edge of said side wall; the container has a substantially cuboid form in the deployed state , and the side walls are folded together in the collapsed state; the container cover is connected to said side wall by at least one kinematic chain ; the kinematic chain comprises n rigid links connected with n-1 kinematic chain joints , wherein n is at least 3; and characterised in that : a first rigid link is rigidly attached to said side wall ; a last rigid link is attached to the container cover via a slidable attachment . a first rigid link is rigidly attached to said side wall ; a last rigid link is attached to the container cover via a slidable attachment .
A diagnostic support apparatus comprising: a computing unit that computes a decreasing rate of a current intensity of an inward current flowing into a nerve pathway, based on magnetic field data obtained by measuring a magnetic field generated by a subject; and a display controller that displays a comparison result, in which the decreasing rate of the current intensity is compared with a predetermined standard value, on a display unit; and characterized by further comprising: a standard changing unit that is configured to change the predetermined standard value based on information indicating a measurement portion for which the current intensity is computed. a computing unit that computes a decreasing rate of a current intensity of an inward current flowing into a nerve pathway, based on magnetic field data obtained by measuring a magnetic field generated by a subject; and a display controller that displays a comparison result, in which the decreasing rate of the current intensity is compared with a predetermined standard value, on a display unit; and characterized by further comprising: a standard changing unit that is configured to change the predetermined standard value based on information indicating a measurement portion for which the current intensity is computed.
Method for inactivating molecules on a surface , comprising the following steps: - Generating a plasma by means of a plasma source comprising two electrodes , wherein an alternating voltage is applied to a first electrode of the electrodes , and a second electrode of the electrodes is grounded, wherein the electrodes are spaced apart from one another by a dielectric, and wherein one of the electrodes is provided on a surface facing the surface to be treated, and wherein a discharge is ignited between the electrodes so that a plasma is formed on the surface , wherein the plasma is generated on the surface at a distance of 0 to 1 mm from the surface to be treated, wherein the plasma comprises hot electrons having an average kinetic energy of at least one electron volt, wherein the surface to be treated is selected from textile material, ceramic, plastic or leather. - Generating a plasma by means of a plasma source comprising two electrodes , wherein an alternating voltage is applied to a first electrode of the electrodes , and a second electrode of the electrodes is grounded, wherein the electrodes are spaced apart from one another by a dielectric, and wherein one of the electrodes is provided on a surface facing the surface to be treated, and wherein a discharge is ignited between the electrodes so that a plasma is formed on the surface ,
Treatment apparatus , in particular filter apparatus for treating, in particular filtering, in particular liquid fluids, in particular fuel, oil or water, in particular of an internal combustion engine, in particular of a motor vehicle, having a treatment element which features a housing with a housing pot , a housing cover , at least one inlet for the fluid to be treated and at least one outlet for the treated fluid, and having a connecting head which features at least one supply line for the fluid to be treated connectable to the at least one inlet , and/or at least one discharge line for the treated fluid connectable to the at least one outlet , wherein the connecting head and the treatment element can be connected to each other by means of a releasable bayonet-type connecting means while executing a rotary/plug-in movement around a connecting axis of the treatment apparatus , and the connecting means features at least one housing connecting part on the sides of the housing and at least one head connecting part on the sides of the connecting head , which can cooperate with one another to connect the connecting means , and at least a first of the connecting parts features, on sides axially opposite with respect to the connecting axis , in each case one functional surface and at least a second of the connecting parts features at least one counter-functional surface which, for cooperating, engages behind one of the functional surfaces of the at least one first connecting part , wherein the material thickness of the connecting part is constant at least in the area of the at least one functional surface , characterized in that the connecting parts are disposed radially inside the peripheral walls of the housing and of the connecting head and that a sealing means for sealing a fluid-guiding area of the treatment apparatus towards the environment is provided with an outer annular gasket which is disposed radially inside the housing connecting part on the housing cover of the treatment element.
A detector for reading out a state of a qubit , the detector comprising: a flux qubit ; a flux bias generator , wherein the flux qubit comprises: an inductor ; a SQUID loop comprising at least one Josephson junction (413-1); and a capacitor , wherein the inductor, the at least one Josephson junction and the capacitor are connected to each other in parallel, wherein the flux qubit is arranged to exhibit a first flux state (410-3) and a second flux state (410-4), wherein the flux bias generator is configured to generate a first flux bias through the inductor and a second flux bias through the SQUID loop, wherein the flux qubit is configured such that, in response to a first value of the first flux bias, the energies of the first and the second flux states are substantially identical and such that, in response to a second value of the first flux bias, the energies of the first and the second flux states are different, and wherein, in response to a first value of the second flux bias, the flux qubit is configured to be coupled to the qubit and, in response to a second value of the second flux bias, to be decoupled from the qubit and to suppress tunneling between the first and the second flux states; and a measurement unit, wherein the measurement unit is configured to determine whether the flux qubit is in the first flux state or the second flux state and to output a signal in dependence on whether the flux qubit is in the first flux state or in the second flux state. a flux qubit ; a flux bias generator , wherein the flux qubit comprises: an inductor ; a SQUID loop comprising at least one Josephson junction (413-1); and a capacitor , an inductor ; a SQUID loop comprising at least one Josephson junction (413-1); and a capacitor , wherein the inductor, the at least one Josephson junction and the capacitor are connected to each other in parallel, wherein the flux qubit is arranged to exhibit a first flux state (410-3) and a second flux state (410-4), wherein the flux bias generator is configured to generate a first flux bias through the inductor and a second flux bias through the SQUID loop, wherein the flux qubit is configured such that, in response to a first value of the first flux bias, the energies of the first and the second flux states are substantially identical and such that, in response to a second value of the first flux bias, the energies of the first and the second flux states are different, and wherein, in response to a first value of the second flux bias, the flux qubit is configured to be coupled to the qubit and, in response to a second value of the second flux bias, to be decoupled from the qubit and to suppress tunneling between the first and the second flux states; and a measurement unit, wherein the measurement unit is configured to determine whether the flux qubit is in the first flux state or the second flux state and to output a signal in dependence on whether the flux qubit is in the first flux state or in the second flux state.
Safety valve unit, in particular for protecting a storage water heater, comprising a shut-off tap for adjusting fluid flow between an inlet and an outlet of the valve unit, a check valve to prevent fluid backflow from the outlet to the inlet, a safety valve to discharge fluid in the event of overpressure, and a discharge pipe connected to the safety valve , comprising a cross connector that incorporates the shut-off tap and the check valve , in which the connector has a first inlet connection and a second outlet connection for connecting respectively to a fluid inlet conduit and to a fluid outlet conduit, and has further a third and a fourth connection, to one of which (14;15) the safety valve is connected and the other of which (14;15) is closed by a plug , fixing elements (32-39) being provided for removably fixing the safety valve and the plug , characterised in that the fixing elements comprise perimetric equal internal grooves obtained in the third and in the fourth connection, corresponding perimetric equal external grooves obtained in the body of the safety valve and in the plug , and locking elements , the perimetric equal internal grooves being aligned with the perimetric equal external grooves and the locking elements being insertable in an extractable manner between the internal grooves and the external grooves to secure the safety valve and the plug to the third and fourth connection, wherein the locking elements are made up of two identical forks , each of which is inserted into a pair of opposite openings (38;39) of one or other of said third and fourth connection, to allow the position of the safety valve and the plug to be inverted.
A display device, comprising: a display panel configured to display images; a plurality of sound generating actuators in a plurality of sound output areas, the sound generating actuators being in contact with the display panel and configured to vibrate the display panel to generate sound; a partition arranged between each of the plurality of sound output areas and surrounding at least one of the plurality of sound output areas; and a back support portion configured to support the display panel , wherein the partition is in contact with the display panel and the back support portion to define a space in each of the sound output areas. a display panel configured to display images; a plurality of sound generating actuators in a plurality of sound output areas, the sound generating actuators being in contact with the display panel and configured to vibrate the display panel to generate sound; a partition arranged between each of the plurality of sound output areas and surrounding at least one of the plurality of sound output areas; and a back support portion configured to support the display panel , wherein the partition is in contact with the display panel and the back support portion to define a space in each of the sound output areas.
A method for determining an inductance (L) of an oscillating circuit (LC), comprising the steps of: - modifying the oscillating circuit (LC; 20) by introducing (S1) an additional impedance (C x ) into the oscillating circuit (LC; 20); - determining (S2) a predetermined oscillating circuit parameter (f x ) of the oscillating circuit (LC'; 20') modified by introducing the impedance, wherein the oscillating circuit parameter (f x ) of the modified oscillating circuit (LC'; 20') is in a predetermined relationship to the inductance (L) of the non-modified oscillating circuit (LC; 20), - determining (S3) the inductance (L) of the non-modified oscillating circuit (LC; 20) on the basis of the predetermined oscillating circuit parameter (f x ) of the modified oscillating circuit (LC'; 20'), the predetermined oscillating circuit parameter (f Ø ) of the non-modified oscillating circuit (LC; 20) and the introduced impedance (C x ); characterized in that the additional impedance (C x ) during introduction (S1.1) is coupled into the oscillating circuit (LC; 20) in contactless manner and the step of determining (S2) the predetermined oscillating circuit parameter (f x ) comprises a contactless measurement; and the step of determining (S2) the predetermined oscillating circuit parameter (f x ) of the modified oscillating circuit (LC'; 20') comprises the following partial steps of: - exciting (S2.1) the modified oscillating circuit (LC'; 20') by means of an energy pulse; - detecting (S2.2) an oscillation of the modified oscillating circuit (LC'; 20') in response to the excitation (S2.1); - evaluating (S2.3) a detected oscillation of the modified oscillating circuit (LC'; 20') with respect to the predetermined oscillating circuit parameter (f x ). - modifying the oscillating circuit (LC; 20) by introducing (S1) an additional impedance (C x ) into the oscillating circuit (LC; 20); - determining (S2) a predetermined oscillating circuit parameter (f x ) of the oscillating circuit (LC'; 20') modified by introducing the impedance, wherein the oscillating circuit parameter (f x ) of the modified oscillating circuit (LC'; 20') is in a predetermined relationship to the inductance (L) of the non-modified oscillating circuit (LC; 20), - determining (S3) the inductance (L) of the non-modified oscillating circuit (LC; 20) on the basis of the predetermined oscillating circuit parameter (f x ) of the modified oscillating circuit (LC'; 20'), the predetermined oscillating circuit parameter (f Ø ) of the non-modified oscillating circuit (LC; 20) and the introduced impedance (C x ); - exciting (S2.1) the modified oscillating circuit (LC'; 20') by means of an energy pulse; - detecting (S2.2) an oscillation of the modified oscillating circuit (LC'; 20') in response to the excitation (S2.1); - evaluating (S2.3) a detected oscillation of the modified oscillating circuit (LC'; 20') with respect to the predetermined oscillating circuit parameter (f x ).
An article comprising: a. a carrier ; b. an activatable material disposed on the carrier, c. a plurality of carrier extensions extending from the carrier, each extension having the activatable material extend co-extensively with the carrier extension; wherein the article is adapted to provide sealing, baffling, or reinforcement within a structure's cavity, characterized in, that the activatable material includes at least one hinge portion so that the activatable material is flexible. a. a carrier ; b. an activatable material disposed on the carrier, c. a plurality of carrier extensions extending from the carrier, each extension having the activatable material extend co-extensively with the carrier extension;
Electrolytic medium comprising: - a set of solid electrolyte particles, comprising solid particles that retain a conductive solution, the set presenting an electrical conductivity greater than 10 micronS/cm, and - a non-conductive fluid immiscible in the conductive solution, immiscible being understood as not forming a single phase in any proportion from 0 to 100°C, the non-conductive fluid when being at rest at room temperature not significantly conducting electrical current. the electrolytic medium being suitable for an electropolishing process comprising the steps of: a) connecting at least one piece to be polished to a power supply; b) connecting at least one electrode to the opposite pole of the power supply; c) contacting the at least one piece to be polished and the solid electrolyte particles of the electrolytic medium with a relative movement between the piece and the particles; d) applying a potential difference between the piece to be polished and the electrode, which produces a current flow between them through the electrolytic medium. - a set of solid electrolyte particles, comprising solid particles that retain a conductive solution, the set presenting an electrical conductivity greater than 10 micronS/cm, and - a non-conductive fluid immiscible in the conductive solution, immiscible being understood as not forming a single phase in any proportion from 0 to 100°C, the non-conductive fluid when being at rest at room temperature not significantly conducting electrical current. a) connecting at least one piece to be polished to a power supply; b) connecting at least one electrode to the opposite pole of the power supply; c) contacting the at least one piece to be polished and the solid electrolyte particles of the electrolytic medium with a relative movement between the piece and the particles; d) applying a potential difference between the piece to be polished and the electrode, which produces a current flow between them through the electrolytic medium.
Two-stroke engine having a cylinder and a crankcase , wherein, in the cylinder , there is formed a combustion chamber which is bounded by a piston which is mounted so as to move in reciprocating fashion in the cylinder , wherein the piston drives a crankshaft , which is rotatably mounted in the crankcase , in rotation, wherein the crankcase has a crankcase interior , wherein the crankcase interior and the combustion chamber are fluidically connected to one another in at least one position of the piston via at least one transfer channel , having an intake channel which opens into the crankcase interior , and having a fuel feed device , wherein the crankcase interior is bounded in the direction of the axis of rotation of the crankshaft by two mutually opposite side walls , wherein the crankshaft is mounted by means of at least one crankshaft bearing arranged in a side wall , wherein, in at least one side wall , a depression runs around the crankshaft bearing , wherein the depression extends around the axis of rotation of the crankshaft , characterized in that the depression is open to the crankcase interior over an angle (α) of at least 45° and at most 320° about the axis of rotation of the crankshaft , and in that a closure wall is arranged at each end of the depression .
A method of establishing a secure communication channel between a first communication device and a second communication device , the secure communication channel being defined by one or more algorithm options, the one or more algorithm options being associated with one of one or more option categories, the method being performed at the first communication device comprising: receiving , via an input module, a signal representing one or more selections, the respective one or more selections being associated with one of the one or more option categories; for the respective option categories, generating a sorted list of algorithm options in order of security strength based on the received selections; generating a security association proposal including one or more of the algorithm options from the respective sorted lists of algorithm options, wherein the security association proposal is generated based on an order in the sorted list of algorithm options; and transmitting the security association proposal to the second communication device for establishing the secure communication channel. receiving , via an input module, a signal representing one or more selections, the respective one or more selections being associated with one of the one or more option categories; for the respective option categories, generating a sorted list of algorithm options in order of security strength based on the received selections; generating a security association proposal including one or more of the algorithm options from the respective sorted lists of algorithm options, wherein the security association proposal is generated based on an order in the sorted list of algorithm options; and transmitting the security association proposal to the second communication device for establishing the secure communication channel.