mhurhangee/patent-ind-claim-en huggingface dataset:
A device for testing a power module (Mp) of a set of power modules (Mp) connected together, the test device including reactive power compensation means configured to compensate the reactive power transferred between the tested power module and the other power modules, and means for controlling the power generated (UT2) by the tested power module, said means for controlling the generated power comprising means for comparing (Mcomp) said generated power with at least one threshold value, the means for compensating the reactive power being constituted by one of the power modules configured to compensate the reactive power exchanged with the tested power module, characterised in that each power module comprises a multi-phase and multi-channel synchronous electric machine including a stator comprising several groups of three phases with a level of magnetic coupling allowing each channel to be controlled separately.
Device for producing a part by molding a bulk metal glass (BMG) alloy, comprising: a. a mold comprising two dies shells delimiting a sealed molding cavity ; b. a device for melting the bulk metal glass (BMG) alloy comprising: bi. a cold sectorized crucible , called melting crucible, arranged vertically comprising hollow sectors formed from an electrically conductive and non-magnetic material electrically insulated from one another; bii. an inductor in the form of a coil surrounding said melting crucible for heating the content thereof; biii. means for generating very high-frequency current for powering the inductor; c. means for connecting the content of the melting crucible with the molding cavity and casting the BMG; and comprising a sectorized piston forming the melting crucible at one of its ends, said piston comprises hollow sectors (481...486) made of an electrically conductive and non-magnetic material electrically insulated from one another, said piston being configured in such a way that when it is subjected to the alternating magnetic field of the inductor powered by the means for generating a high-frequency current, induced currents circulate in the sectors of said piston and create a force that repels from the surface of the piston the bulk metal glass (BMG) alloy being located in the melting crucible, characterized in that it comprises induction heating means of the molding cavity and channels for circulating a coolant and cooling said molding cavity. a. a mold comprising two dies shells delimiting a sealed molding cavity ; b. a device for melting the bulk metal glass (BMG) alloy comprising: bi. a cold sectorized crucible , called melting crucible, arranged vertically comprising hollow sectors formed from an electrically conductive and non-magnetic material electrically insulated from one another; bii. an inductor in the form of a coil surrounding said melting crucible for heating the content thereof; biii. means for generating very high-frequency current for powering the inductor; bi. a cold sectorized crucible , called melting crucible, arranged vertically comprising hollow sectors formed from an electrically conductive and non-magnetic material electrically insulated from one another; bii. an inductor in the form of a coil surrounding said melting crucible for heating the content thereof; biii. means for generating very high-frequency current for powering the inductor; c. means for connecting the content of the melting crucible with the molding cavity and casting the BMG;
Folding covering for a convertible vehicle, having a cover and a rear window foam-sealed into the cover with a plastic, wherein the foam encapsulation between the cover and rear window is undertaken along the entire border of the rear window , and having a tensioning bow , wherein the tensioning bow is arranged in the rear region of the motor vehicle and rests at least with a central region on a body-side component in the closed position and has a bottom side , a side region running perpendicularly (z direction) and a top side running downwards obliquely with respect to the rear side (H), and wherein, at least in a region of the border of the rear window , the cover is offset inwards with respect to the rear window in the direction of the vehicle interior (I), wherein the rear window comprises a lower border region , an upper border region and lateral border regions , and the offset of the cover is arranged inwards on the lower border region , and wherein the rear window rests in the lower border region indirectly or directly on the upper side of the tensioning bow and conceals the latter, as seen from the outer side, characterized in that the profile-like PU foam encapsulation is arranged as an end on the border side in the region of the lower border edge of the rear window , said PU foam encapsulation comprising a border edge pointing downwards to the body-side component, and wherein the cover is kept foamed in place in the profile-like PU foam encapsulation by means of a first border region and, as it runs further around the border edge , is folded over inwards into the vehicle interior (I) and kept fixed on the tensioning bow by means of a second border region .
An ink jet recording method comprising: adhering a reaction solution containing a coagulant for coagulating components of an ink composition onto a recording medium; and adhering the ink composition onto the recording medium by discharging the ink composition from an ink jet head, wherein the ink composition is an aqueous ink jet composition which contains a first wax having a melting point of 100°C or higher, a second wax having a melting point of 70°C or lower, and water; wherein the recording medium has non-absorbency or low absorbency; wherein the adhering of the ink composition is performed on the heated recording medium; and characterized in that : in the adhering of the ink composition, a surface temperature of the recording medium is from 30°C to 45°C. adhering a reaction solution containing a coagulant for coagulating components of an ink composition onto a recording medium; and adhering the ink composition onto the recording medium by discharging the ink composition from an ink jet head, wherein the ink composition is an aqueous ink jet composition which contains a first wax having a melting point of 100°C or higher, a second wax having a melting point of 70°C or lower, and water; wherein the recording medium has non-absorbency or low absorbency; wherein the adhering of the ink composition is performed on the heated recording medium; and characterized in that : in the adhering of the ink composition, a surface temperature of the recording medium is from 30°C to 45°C.
A thermochromic color-memory composition comprising: (a) an electron-donating color-developing organic compound; (b) an electron-accepting compound; and (c) an ester compound represented by the following Formula , as a reaction medium which controls color reaction between the component (a) and the component (b): (wherein, R represents an alkyl group having 3 to 18 carbon atoms, a cycloalkylalkyl group having 6 to 11 carbon atoms, a cycloalkyl group having 5 to 7 carbon atoms or an alkenyl group having 3 to 18 carbon atoms; each X independently represents a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, an alkoxy group having 1 to 3 carbon atoms or a halogen atom; and each Y independently represents a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, a methoxy group, an ethoxy group or a halogen atom). (a) an electron-donating color-developing organic compound; (b) an electron-accepting compound; and (c) an ester compound represented by the following Formula , as a reaction medium which controls color reaction between the component (a) and the component (b): (wherein, R represents an alkyl group having 3 to 18 carbon atoms, a cycloalkylalkyl group having 6 to 11 carbon atoms, a cycloalkyl group having 5 to 7 carbon atoms or an alkenyl group having 3 to 18 carbon atoms; each X independently represents a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, an alkoxy group having 1 to 3 carbon atoms or a halogen atom; and each Y independently represents a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, a methoxy group, an ethoxy group or a halogen atom).
An ice-lined vaccine refrigerator comprising: - a vaccine storage compartment ; - an electrically powered cooling circuit , the electrically powered cooling circuit being configured to generate an ice-lining and to cool the vaccine storage compartment; - an AC power inlet adapted for connection to an external supply of AC power; and - a compressor forming part of the electrically powered cooling circuit and adapted to be powered by the external supply of AC power through the AC power inlet; characterized in that the compressor is a DC powered compressor; and the ice-lined refrigerator comprises an AC/DC convertor configured to convert AC power received at the AC power inlet to DC power which powers the compressor. - a vaccine storage compartment ; - an electrically powered cooling circuit , the electrically powered cooling circuit being configured to generate an ice-lining and to cool the vaccine storage compartment; - an AC power inlet adapted for connection to an external supply of AC power; and - a compressor forming part of the electrically powered cooling circuit and adapted to be powered by the external supply of AC power through the AC power inlet; the compressor is a DC powered compressor; and the ice-lined refrigerator comprises an AC/DC convertor configured to convert AC power received at the AC power inlet to DC power which powers the compressor.
An elevator car energy storage mounting arrangement comprising: a lower beam configured to carry an elevator car ; a rack configured to carry an energy storage ; and an energy storage mounted in the rack ; and further characterized in that the rack is slidably mounted between a bottom of the elevator car and the lower beam . a lower beam configured to carry an elevator car ; a rack configured to carry an energy storage ; and an energy storage mounted in the rack ; and further characterized in that the rack is slidably mounted between a bottom of the elevator car and the lower beam .
A closing device for a container for cooking food, characterised in that the closing device has at least one inner longitudinal retaining element and at least one sleeve body surrounding same, in which this container provided with an opening can be guided between this retaining element and the sleeve body as well as through a longitudinal slit into the latter, wherein the retaining element and the sleeve body surrounding same are designed such that they form a pressure relief valve , through which the container , which can be brought from a closed position into an open position and vice versa during heating, is opened at a specific excess pressure of the medium, and respectively closed when the excess pressure drops.
A plate pack for a multi-disc clutch having a pressure plate , which can be axially displaced by an actuation element for pressing a clutch disc having several friction discs between the pressure plate and a counter plate, an intermediate plate , in particular designed as a disc-type plate, for pressing a friction disc of the clutch disc against a first axial side facing the pressure plate and for pressing a friction disc of the clutch disc against a second axial side facing away from the pressure plate and a spring element which is connected to the pressure plate and the intermediate plate for automatically positioning the intermediate plate at a defined axial distance relative to the pressure plate , characterised in that at least one further intermediate plate is provided for pressing a friction disc of the clutch disc against a first axial side facing towards the pressure plate and for pressing a friction disc of the clutch disc against a second axial side facing away from the pressure plate , wherein the further intermediate plate is connected, via a further spring element , to the intermediate plate next in the direction of the pressure plate and the further spring element is provided for automatically positioning the further intermediate plate at a defined axial distance relative to the intermediate plate next in the direction of the pressure plate .
A timber bunk assembly which comprises a timber bunk and at least two fasteners for fastening the timber bunk, wherein the fastener of the timber bunk comprises basic parts that comprise a bottom plate , a lateral guard on top of the bottom plate , a top plate on top of the lateral guard , a fitting piece on top of the top plate and clamping pieces on top of the fitting piece , the basic parts being attachable together by bolts, characterized in that the fastener of the timber bunk comprises replaceable additional parts that are configured to complete the fastener into a fastener of a trailer, wherein said replaceable additional parts comprise a sliding plastic plate , a raising plate and the bottom plate which further comprises a rubber pad and a slide strip on its surface, the sliding plastic plate and the raising plate being next to each other below the top plate .
A solid-state image capturing system comprising: a solid-state image capturing device ; and an information processing device , wherein the solid-state image capturing device includes: a first Deep-Neural-Network (DNN) processing unit that executes, on image data, a part of a DNN algorithm by a first DNN to generate a first result, and the information processing device includes: a second DNN processing unit that executes, on the first result acquired from the solid-state image capturing device , remaining of the DNN algorithm by a second DNN to generate a second result, wherein the solid-state image capturing device further includes: a first control unit that controls the first DNN processing unit , and the information processing device further includes: a second control unit that controls the second DNN processing unit , the first control unit generating first control information including information on the first DNN, and transmitting the generated first control information to the second control unit , and the second control unit generating second control information including information on the second DNN, and transmitting the generated second control information to the first control unit , wherein the first control unit controls the first DNN processing unit based on the second control information, and the second control unit controls the second DNN processing unit based on the first control information. a solid-state image capturing device ; and an information processing device , wherein the solid-state image capturing device includes: a first Deep-Neural-Network (DNN) processing unit that executes, on image data, a part of a DNN algorithm by a first DNN to generate a first result, and the information processing device includes: a second DNN processing unit that executes, on the first result acquired from the solid-state image capturing device , remaining of the DNN algorithm by a second DNN to generate a second result, wherein the solid-state image capturing device further includes: a first control unit that controls the first DNN processing unit , and the information processing device further includes: a second control unit that controls the second DNN processing unit , the first control unit generating first control information including information on the first DNN, and transmitting the generated first control information to the second control unit , and the second control unit generating second control information including information on the second DNN, and transmitting the generated second control information to the first control unit , wherein the first control unit controls the first DNN processing unit based on the second control information, and the second control unit controls the second DNN processing unit based on the first control information.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S702) a logged measurement configuration from a network; performing (S704) a measurement logging based on the received logged measurement configuration; and transmitting (S706) a logged measurement to the network, based on the measurement logging, wherein transmitting the logged measurement to the network comprises: based on the UE being in an "any cell selection" state, transmitting the logged measurement which comprises information regarding a last logged cell that the UE was camping on before the UE entered the "any cell selection" state. receiving (S702) a logged measurement configuration from a network; performing (S704) a measurement logging based on the received logged measurement configuration; and transmitting (S706) a logged measurement to the network, based on the measurement logging, wherein transmitting the logged measurement to the network comprises: based on the UE being in an "any cell selection" state, transmitting the logged measurement which comprises information regarding a last logged cell that the UE was camping on before the UE entered the "any cell selection" state. based on the UE being in an "any cell selection" state, transmitting the logged measurement which comprises information regarding a last logged cell that the UE was camping on before the UE entered the "any cell selection" state.
Laminate panel (40; 40'; 40"; 40′′′) having a carrier layer (41; 41'; 41"; 41′′′) of wood or wood-based material, wherein at least the upper side of the laminate panel (40; 40'; 40"; 40′′′) has a decor and a layer of a cured resin (46; 46'; 46"; 46′′′), and wherein the rear side of the laminate panel (40; 40'; 40"; 40′′′) has a counter-tension layer of a cured counter-tension material (45; 45'; 45"; 45′′′), and wherein the counter-tension layer has no paper layer, characterised in that one kilogram of the cured counter-tension material contains the following constituents: amino resin: 300 to 700 grams filler: 300 to 700 grams.
Method for operating a multiple-membrane pump that has a pump housing comprising a plurality of membrane chambers which are accommodated in parallel line sections and each of which is enclosed between two ball valves that close in the same flow direction and is divided, in a fluid-tight manner, into a liquid chamber and an air chamber by a membrane, and furthermore a drive being associated with the pump housing in a drive chamber arranged between the air chambers, the drive having drive means that are mechanically connected to the membranes for moving, independently of one another, each membrane between two movement end points, and the drive means of the two membranes being asynchronously moved by the one drive, characterized in that the drive means are moved by the drive by means of adjustable gears in order to achieve an adjustable conveying ratio of the plurality of membranes.
A method of processing a compressed video signal that includes a succession of image frames and that is a compressed version of an original source video signal, the method comprising: analyzing the compressed video signal to generate one or more compression statistics; identifying a scene of the compressed video signal for re-encoding based on at least one of the compressed video signal and the compression statistics; selecting a target bit rate for re-encoding the identified scene based on the compression statistics and applicable compression constraints; determining compression parameters for the identified scene based on the identified scene's compression statistics and the selected target bit rate; re-encoding image frames for the identified scene from the original source video signal based on the determined compression parameters, thereby generating a new compressed scene; checking a visual quality of the new compressed scene by monitoring a parameter that is indicative of compressed picture quality to enable a decision to be made to accept or reject the new compressed scene; and integrating the new compressed scene into the compressed video signal if the visual quality is sufficient for the decision to be made to accept it. analyzing the compressed video signal to generate one or more compression statistics; identifying a scene of the compressed video signal for re-encoding based on at least one of the compressed video signal and the compression statistics; selecting a target bit rate for re-encoding the identified scene based on the compression statistics and applicable compression constraints; determining compression parameters for the identified scene based on the identified scene's compression statistics and the selected target bit rate; re-encoding image frames for the identified scene from the original source video signal based on the determined compression parameters, thereby generating a new compressed scene; checking a visual quality of the new compressed scene by monitoring a parameter that is indicative of compressed picture quality to enable a decision to be made to accept or reject the new compressed scene; and integrating the new compressed scene into the compressed video signal if the visual quality is sufficient for the decision to be made to accept it.
A method of an electronic device for processing a gesture, the method comprising: in response to an input of a hovering gesture to a flexible display of the electronic device , wherein the flexible display is divided in response to folding of the electronic device into a first area and a second area based on a folding line , sensing the hovering gesture in the first area and the second area , respectively; determining a hovering point corresponding to the hovering gesture, based on the sensed positions of the first area and the second area , respectively, determining whether the hovering point is within a folding area or outside of the folding area , and adjusting a position of the hovering point based on determining whether the hovering point is within the folding area , wherein the folding area is an area surrounding the folding line that is determined according to a sensed folding state of the electronic device . in response to an input of a hovering gesture to a flexible display of the electronic device , wherein the flexible display is divided in response to folding of the electronic device into a first area and a second area based on a folding line , sensing the hovering gesture in the first area and the second area , respectively; determining a hovering point corresponding to the hovering gesture, based on the sensed positions of the first area and the second area , respectively, determining whether the hovering point is within a folding area or outside of the folding area , and adjusting a position of the hovering point based on determining whether the hovering point is within the folding area , wherein the folding area is an area surrounding the folding line that is determined according to a sensed folding state of the electronic device .
An exhaust system for a vehicle having an internal combustion engine, with a Helmholtz resonator and two exhaust lines extending in the direction of the resonator, wherein the resonator has two neck openings to a resonator volume and one neck opening in each case is coupled to one exhaust line in each case, characterised in that the resonator is tuned to damp a dominating engine order and each exhaust line in the direction of throughflow of the exhaust lines has at least two exhaust outlet openings downstream from the resonator , and at least one respective exhaust outlet opening is provided with an exhaust flap by means of which the exhaust outlet opening is reversibly closable.