mhurhangee/patent-ind-claim-en huggingface dataset:
A die comprising: a substrate ; at least one metal layer and at least one dielectric layer ; a component ; a first shielding means configured to provide shielding of the component from a top magnetic field traversing a top portion of the die, wherein the first shielding means comprises a first ferromagnetic layer positioned above the component; and a second shielding means configured to provide shielding of the component from a bottom magnetic field traversing a bottom portion of the die, wherein the second shielding means comprises a layer positioned below the component; the die further comprises a third shielding means configured to provide shielding of the component from a side magnetic field traversing a side portion of the die, wherein the third shielding means comprises a plurality of through substrate vias which traverse the at least one metal layer, the at least one dielectric layer and the substrate, and are positioned around the component, the through substrate vias comprising a ferromagnetic material; characterized in that the layer of the second shielding means is composed of a second ferromagnetic material. a substrate ; at least one metal layer and at least one dielectric layer ; a component ; a first shielding means configured to provide shielding of the component from a top magnetic field traversing a top portion of the die, wherein the first shielding means comprises a first ferromagnetic layer positioned above the component; and a second shielding means configured to provide shielding of the component from a bottom magnetic field traversing a bottom portion of the die, wherein the second shielding means comprises a layer positioned below the component; the die further comprises a third shielding means configured to provide shielding of the component from a side magnetic field traversing a side portion of the die, wherein the third shielding means comprises a plurality of through substrate vias which traverse the at least one metal layer, the at least one dielectric layer and the substrate, and are positioned around the component, the through substrate vias comprising a ferromagnetic material; characterized in that the layer of the second shielding means is composed of a second ferromagnetic material.
A liquid suction pump , the pump comprising: a drive pipe to receive a liquid drive flow for the pump ; a liquid conduit having first and second liquid delivery arms to provide pumped liquid, and a connecting valve arrangement between the arms ; first and second pump inlets to said first and second arms , said first and second pump inlets having respective first and second one-way inlet valves; said valve arrangement having a valve inlet coupled to said drive pipe and valve outlets coupled to said first and second arms, to alternately close off a liquid connection between said valve inlet and respective ones of said first and second arms; and a compliant element coupled to said drive pipe ; wherein the suction pump is configured such that, in operation, said drive flow oscillates in pressure/flow rate due to alternate switching of said valve arrangement ; and wherein a compliance of said compliant element is such that a geometry of said suction pump in combination with said compliance defines a resonant condition for said pump and said oscillation is at a resonant frequency of the pump , characterised in that : said oscillation causes said switching, and the amplitude of a pressure variation of said resonant oscillation, at said valve arrangement , is sufficient to switch said valve arrangement between alternate positions when said pressure is at a minimum, and an amplitude of the pressure variation in or at the compliant element is equal to or greater than a differential in pressure across the valve arrangement between the valve inlet and a closed-off valve outlet. a drive pipe to receive a liquid drive flow for the pump ; a liquid conduit having first and second liquid delivery arms to provide pumped liquid, and a connecting valve arrangement between the arms ; first and second pump inlets to said first and second arms , said first and second pump inlets having respective first and second one-way inlet valves; said valve arrangement having a valve inlet coupled to said drive pipe and valve outlets coupled to said first and second arms, to alternately close off a liquid connection between said valve inlet and respective ones of said first and second arms; and a compliant element coupled to said drive pipe ; wherein the suction pump is configured such that, in operation, said drive flow oscillates in pressure/flow rate due to alternate switching of said valve arrangement ; and wherein a compliance of said compliant element is such that a geometry of said suction pump in combination with said compliance defines a resonant condition for said pump and said oscillation is at a resonant frequency of the pump , characterised in that : said oscillation causes said switching, and the amplitude of a pressure variation of said resonant oscillation, at said valve arrangement , is sufficient to switch said valve arrangement between alternate positions when said pressure is at a minimum, and an amplitude of the pressure variation in or at the compliant element is equal to or greater than a differential in pressure across the valve arrangement between the valve inlet and a closed-off valve outlet.
Liquid filled power bushing comprising: - an insulator comprising an insulator chamber for receiving an insulating liquid ; - an expansion chamber communicating with the insulator chamber for enabling an expansion or contraction of the insulating liquid ; - an electrical conductor located within the bushing and extending through the expansion chamber and the insulator chamber ; a bellow located inside the expansion chamber , the bellow comprising an interior chamber with variable volume, characterized in that said interior chamber communicates via a channel with a space filled with gas and located outside the expansion chamber for enabling said gas to enter the interior chamber in case of an expansion of the volume of the interior chamber resulting from the contraction of the insulating liquid and being released from said interior chamber into said space in case of a contraction of the volume of the interior chamber resulting from the expansion of the insulating liquid , wherein the bellow is fixed to a removable closing lid of a top part of the expansion chamber . - an insulator comprising an insulator chamber for receiving an insulating liquid ; - an expansion chamber communicating with the insulator chamber for enabling an expansion or contraction of the insulating liquid ; - an electrical conductor located within the bushing and extending through the expansion chamber and the insulator chamber ; a bellow located inside the expansion chamber , the bellow comprising an interior chamber with variable volume,
A base station apparatus (1-1, 1-2), the base station apparatus (1-1, 1-2) being configured to communicate with multiple terminal apparatuses (2-1 to 2-8), the base station apparatus (1-1, 1-2) comprising: a transmission unit (10003-1) configured to transmit a first frame to obtain a Transmission opportunity in which a radio medium is used without restraint, the base station apparatus (1-1, 1-2) being characterized in that the transmission unit (10003-1) is further configured to transmit a Trigger frame providing an instruction of simultaneous transmission of a second frame to be transmitted to the base station apparatus (1-1, 1-2) itself, to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, and to transmit a third frame addressed to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, wherein a value indicating a Transmission opportunity that is written in the third frame and that the third frame is to obtain is different from a value indicating a Remaining Duration of the Transmission opportunity obtained by the first frame at a time of transmission of the third frame. a transmission unit (10003-1) configured to transmit a first frame to obtain a Transmission opportunity in which a radio medium is used without restraint, the base station apparatus (1-1, 1-2) being characterized in that the transmission unit (10003-1) is further configured to transmit a Trigger frame providing an instruction of simultaneous transmission of a second frame to be transmitted to the base station apparatus (1-1, 1-2) itself, to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, and to transmit a third frame addressed to the multiple terminal apparatuses (2-1 to 2-8) in the Transmission opportunity, wherein a value indicating a Transmission opportunity that is written in the third frame and that the third frame is to obtain is different from a value indicating a Remaining Duration of the Transmission opportunity obtained by the first frame at a time of transmission of the third frame.
A graphene/organic solvent dispersion liquid comprising graphene dispersed in an organic solvent and having a value of (W2 - W1)/G in the range of 0.005 or more and 0.05 or less, wherein W1 and W2 are the water fractions measured at 130°C and 250°C, respectively, by the Karl Fischer's method and G is the solid fraction of the graphene.
A multi-cluster processing system comprising: a first cluster comprising a plurality of first-type cores ; a second cluster comprising a plurality of second-type cores ; and a control unit configured to monitor loads of the first-type cores and the second-type cores , wherein an amount of computation per unit of time of each of the second-type cores is greater than an amount of computation per unit of time of each of the first-type cores , wherein utilization of at least one of enabled first-type cores exceeds a predetermined threshold utilization (TU) of each of the first-type cores , the control unit enables at least one of disabled first-type cores in a first mode, and the control unit enables at least one of the disabled second-type cores and disables the first cluster in a second mode, wherein the same predetermined threshold utilization (TU) applies to all of the first-type cores , wherein in the second mode, the control unit enables only a portion of disabled second-type cores and disables the first cluster , and characterized in that the multi-cluster processing system comprises a mode decision unit determining in real time, according to the system operating environment, the first or the second mode, wherein when the multi-cluster processing system is in a low power mode, the control unit is in the first mode, and wherein when the multi-cluster processing system is in a high performance mode, the control unit is in the second mode. a first cluster comprising a plurality of first-type cores ; a second cluster comprising a plurality of second-type cores ; and a control unit configured to monitor loads of the first-type cores and the second-type cores , wherein an amount of computation per unit of time of each of the second-type cores is greater than an amount of computation per unit of time of each of the first-type cores , wherein utilization of at least one of enabled first-type cores exceeds a predetermined threshold utilization (TU) of each of the first-type cores , the control unit enables at least one of disabled first-type cores in a first mode, and the control unit enables at least one of the disabled second-type cores and disables the first cluster in a second mode, wherein the same predetermined threshold utilization (TU) applies to all of the first-type cores , wherein in the second mode, the control unit enables only a portion of disabled second-type cores and disables the first cluster , and characterized in that the multi-cluster processing system comprises a mode decision unit determining in real time, according to the system operating environment, the first or the second mode, wherein when the multi-cluster processing system is in a low power mode, the control unit is in the first mode, and wherein when the multi-cluster processing system is in a high performance mode, the control unit is in the second mode.
A magnetron assembly for a rotary target cathode, the magnetron assembly comprising: an elongated support structure ; a magnet bar structure movably positioned below the support structure; a plurality of drive modules coupled to the support structure, the drive modules each including a motorized actuation mechanism operatively coupled to the magnet bar structure; a controller and battery module coupled to the support structure and in operative communication with the drive modules, the controller and battery module including an electronic controller and at least one rechargeable battery , the battery configured to energize each motorized actuation mechanism and the electronic controller; and characterised by comprising one or more power generation modules coupled to the support structure and in electrical communication with the battery such that electrical energy output from the one or more power generation modules recharges the battery. an elongated support structure ; a magnet bar structure movably positioned below the support structure; a plurality of drive modules coupled to the support structure, the drive modules each including a motorized actuation mechanism operatively coupled to the magnet bar structure; a controller and battery module coupled to the support structure and in operative communication with the drive modules, the controller and battery module including an electronic controller and at least one rechargeable battery , the battery configured to energize each motorized actuation mechanism and the electronic controller; and characterised by comprising one or more power generation modules coupled to the support structure and in electrical communication with the battery such that electrical energy output from the one or more power generation modules recharges the battery.
A load handling machine comprising at least two front wheels , at least one rear wheel , a so-called rolling frame equipped with said wheels , one or several hydraulic motors or gear motors driving the rotation of the front wheels , one or several hydraulic motors or gear motors driving the rotation of the rear wheel(s) , and, supported by said frame , a load handling device with an empty state in the absence of a load and a loaded state, a hydraulic pump , and a control unit , each hydraulic motor or gear motor being connected to the hydraulic pump , characterized in that each hydraulic motor or gear motor is connected to the hydraulic pump by a fluid circulation circuit equipped with a shutter member mounted movably between an open position, in which the hydraulic motor (5; 6) or the gear motor is able to be supplied with fluid by the hydraulic pump and the wheel(s) (2; 3) associated with said hydraulic motor or gear motor are said to be drive wheels, and a closed position, in which the wheel(s) (2; 3) associated with said hydraulic motor or gear motor are said to be non-driving, said fluid circulation circuits being in fluid communication, in that the handling machine comprises at least one first operating mode said to be by propulsion wherein the rear wheel(s) are drive wheels and the front wheels are non-driving wheels, a second operating mode said to be by traction wherein the front wheels are drive wheels and the rear wheel(s) are non-driving wheels, and a system for determining a parameter representative of the empty or loaded state of the load handling device , and in that the control unit is configured to acquire data from the system for determining a parameter representative of the empty or loaded state of the load handling device and to command the first or second operating mode of the machine based on at least said data.
An apparatus for magnetic cooling, comprising: a first region for magnetizing two or more magnetic elements (120-1, 120-2, 120-3) of different sizes; and a magnet device at the first region , wherein the magnet device is configured to magnetize the two or more elements (120-1, 120-2, 120-3); the apparatus being characterized by including two or more second regions (130-1, 130-2, 130-3); and two or more channels (140-1, 140-2, 140-3) having different sizes, wherein each channel of the two or more channels (140-1, 140-2, 140-3) connects the first region and a respective second region of the two or more second regions (130-1, 130-2, 130-3), and wherein the two or more channels (140-1, 140-2, 140-3) are configured for a transport of the two or more magnetic elements (120-1, 120-2, 120-3) from the first region to the two or more second regions (130-1, 130-2, 1 130-3). a first region for magnetizing two or more magnetic elements (120-1, 120-2, 120-3) of different sizes; and a magnet device at the first region , wherein the magnet device is configured to magnetize the two or more elements (120-1, 120-2, 120-3); the apparatus being characterized by including two or more second regions (130-1, 130-2, 130-3); and two or more channels (140-1, 140-2, 140-3) having different sizes, wherein each channel of the two or more channels (140-1, 140-2, 140-3) connects the first region and a respective second region of the two or more second regions (130-1, 130-2, 130-3), and wherein the two or more channels (140-1, 140-2, 140-3) are configured for a transport of the two or more magnetic elements (120-1, 120-2, 120-3) from the first region to the two or more second regions (130-1, 130-2, 1 130-3).
A drive mechanism for a drug delivery device, comprising: - a lead screw and a lead screw nut aligned with an axis defining an axial direction and an opposite axial direction, - a screw thread and at least one further screw thread of the lead screw , the screw thread and the further screw thread having the same pitch and being intertwined, and - a drive feature of the lead screw nut , - the drive feature engaging the screw thread and the further screw thread and allowing for a dispense operation a helical movement of the lead screw with respect to the lead screw nut at least in the axial direction. - a lead screw and a lead screw nut aligned with an axis defining an axial direction and an opposite axial direction, - a screw thread and at least one further screw thread of the lead screw , the screw thread and the further screw thread having the same pitch and being intertwined, and - a drive feature of the lead screw nut , - the drive feature engaging the screw thread and the further screw thread and allowing for a dispense operation a helical movement of the lead screw with respect to the lead screw nut at least in the axial direction.
A camera comprising: a camera-side mount , wherein first, second, and third camera-side contact pins are adjacent to one another and are disposed in the alignment sequence order of the first, second, and third camera-side contact pins, characterized in that the first camera-side contact pin is a pin corresponding to detection of a signal change caused by coupling of a camera accessory , the second camera-side contact pin is a pin corresponding to supply of power for communication with the coupled camera accessory , and the third camera-side contact pin is a pin corresponding to supply of a driving power to an actuator of the camera accessory . a camera-side mount , wherein first, second, and third camera-side contact pins are adjacent to one another and are disposed in the alignment sequence order of the first, second, and third camera-side contact pins, characterized in that the first camera-side contact pin is a pin corresponding to detection of a signal change caused by coupling of a camera accessory , the second camera-side contact pin is a pin corresponding to supply of power for communication with the coupled camera accessory , and the third camera-side contact pin is a pin corresponding to supply of a driving power to an actuator of the camera accessory .
A foamable gritty composition, comprising: a) constituents including a solvent present in a range from 0.5% w/w to 30.0% w/w, said solvent including any one or combination of D'limonene and sunflower oil methyl ester; a particulate scrubbing agent including mechanical scrubber particles of from 100 to 800 microns in size, present in a range from 1.0% w/w to 8% w/w; a surfactant present in a range from 0.5% w/w to 30.0% w/w; skin conditioner present in a range from 0.01% w/w to 5.00% w/w; and a non-Newtonian thickening agent present in a range from 1.5% w/w to 1.7% w/w; water; and b) wherein the non-Newtonian thickening agent is selected from: acrylates/C10-30 alkyl acrylate crosspolymer, carbomers, xanthan gum, guar gum, quaternised guar gum, alginate, bentonite, fumed silica or combination thereof, such that said foamable gritty composition is dispensible as a gritty foam from a non-aerosol foam dispenser capable of dispensing hand cleansers with said mechanical scrubber particles present therein. a) constituents including a solvent present in a range from 0.5% w/w to 30.0% w/w, said solvent including any one or combination of D'limonene and sunflower oil methyl ester; a particulate scrubbing agent including mechanical scrubber particles of from 100 to 800 microns in size, present in a range from 1.0% w/w to 8% w/w; a surfactant present in a range from 0.5% w/w to 30.0% w/w; skin conditioner present in a range from 0.01% w/w to 5.00% w/w; and a non-Newtonian thickening agent present in a range from 1.5% w/w to 1.7% w/w; water; and b) wherein the non-Newtonian thickening agent is selected from: acrylates/C10-30 alkyl acrylate crosspolymer, carbomers, xanthan gum, guar gum, quaternised guar gum, alginate, bentonite, fumed silica or combination thereof, such that said foamable gritty composition is dispensible as a gritty foam from a non-aerosol foam dispenser capable of dispensing hand cleansers with said mechanical scrubber particles present therein.