mhurhangee/patent-ind-claim-en huggingface dataset:
A dynamic electro-mechanical ottoman for an aircraft, comprising: a rail assembly comprising: one or more rails ; and one or more actuatable tracks coupled to the one or more rails ; and a cushion assembly translatable via the one or more actuatable tracks between a first translation position and a second translation position, the cushion assembly comprising: one or more cross plates coupled to the one or more actuatable tracks; a pivot shaft coupled to the one or more cross plates; and a cushion sub-assembly comprising: one or more support plates coupled to the pivot shaft; and a cushion coupled to the one or more support plates, the cushion sub-assembly rotatable about an axis through the pivot shaft between a first rotation position and a second rotation position to actuate a front edge of the cushion in a downward direction and a rear edge of the cushion in an upward direction, a top surface of the cushion at least partially able to face an aircraft seat when the cushion sub-assembly is in the second rotation position. a rail assembly comprising: one or more rails ; and one or more actuatable tracks coupled to the one or more rails ; and one or more rails ; and one or more actuatable tracks coupled to the one or more rails ; and a cushion assembly translatable via the one or more actuatable tracks between a first translation position and a second translation position, the cushion assembly comprising: one or more cross plates coupled to the one or more actuatable tracks; a pivot shaft coupled to the one or more cross plates; and a cushion sub-assembly comprising: one or more support plates coupled to the pivot shaft; and a cushion coupled to the one or more support plates, the cushion sub-assembly rotatable about an axis through the pivot shaft between a first rotation position and a second rotation position to actuate a front edge of the cushion in a downward direction and a rear edge of the cushion in an upward direction, a top surface of the cushion at least partially able to face an aircraft seat when the cushion sub-assembly is in the second rotation position. one or more cross plates coupled to the one or more actuatable tracks; a pivot shaft coupled to the one or more cross plates; and a cushion sub-assembly comprising: one or more support plates coupled to the pivot shaft; and a cushion coupled to the one or more support plates, one or more support plates coupled to the pivot shaft; and a cushion coupled to the one or more support plates, the cushion sub-assembly rotatable about an axis through the pivot shaft between a first rotation position and a second rotation position to actuate a front edge of the cushion in a downward direction and a rear edge of the cushion in an upward direction, a top surface of the cushion at least partially able to face an aircraft seat when the cushion sub-assembly is in the second rotation position.
A compound selected from the group consisting of: or a pharmaceutically acceptable salt, solvate thereof.
A locking unit for a closing system of a door, in particular for a drive rod lock having multiple locking, said locking unit having at least - a lock housing which can be mounted on a door leaf, e.g. on a lock faceplate , - a lock chain displaceable within the lock housing , - and at least one latch bolt , which is displaceable within the lock housing , has a bevelled actuating edge associated with the strike plate , and is loaded towards an extended locking position with a latch spring , the latch bolt being retractable out of an extended locking position or a partially extended unlocking position into a retracted opening position by means of the lock chain , the latch bolt projecting out of the lock housing or beyond the faceplate by an unlocking distance (M1) when in the partially extended unlocking position, the lock chain being held in the unlocking position by a blocking element , and the latch bolt being held in the partially extended unlocking position by the lock chain in the unlocking position thereof, the blocking element being actuatable for automatic locking of the locking unit such that the blocking element releases the lock chain so that the latch bolt is automatically moved into the extended locking position, a bolt being mounted in the lock housing in addition to the displaceable latch bolt , said bolt being coupled to the lock chain such that it can be moved with the lock chain out of an unlocking position into a locking position and vice versa, the bolt being moved into the locking position when the door leaf passes into the closing position, as soon as the latch bolt reaches or exceeds a partially extended threshold position in which the latch bolt projects out of the lock housing or beyond the faceplate by a threshold distance (M2), which is greater than the unlocking distance (M1) in the unlocking position, characterised in that the blocking element can be actuated by a triggering magnet for automatic locking of the locking unit, wherein the bolt is a hooked pivot bolt , wherein the lock chain is operatively connected to the latch bolt via a control lever such that, after release by the blocking element , the lock chain is held by the control lever until the spring-loaded latch bolt reaches the partially extended threshold position. - a lock housing which can be mounted on a door leaf, e.g. on a lock faceplate , - a lock chain displaceable within the lock housing , - and at least one latch bolt , which is displaceable within the lock housing , has a bevelled actuating edge associated with the strike plate , and is loaded towards an extended locking position with a latch spring ,
Ettringitic binder comprising: - at least one source of aluminosilicate characterized by a pozzolanic activity index (PIZ) determined by the Chapelle test method, in a range from 200 to 2200 mg/g; - at least one source of calcium sulfate; - at least one source of calcium hydroxide; - at least one alkaline catalyst chosen from sodium fluoride, sodium aluminate, trisodium phosphate, sodium orthosilicate, sodium metasilicate, sodium hexafluorosilicate, sodium fluorophosphate, sodium hexametaphosphate, sodium carbonate, sodium borate, sodium hexafluoroaluminate, potassium tetrafluoroaluminate or mixtures thereof; and - at least one activator selected from compounds capable of complexing cations, preferably compounds capable of complexing calcium, aluminum and/or silicon; said ettringitic binder being characterized by - a calcium hydroxide saturation rate, denoted Sat(CH), in a range from 0.75 to 8; and - a calcium sulfate rate, denoted RMK, in a range from 0.05 to 1.25; the RMK parameter being defined by the following equation RMK = Qm C $ × 592000 IPZ × Q MK × 3 wherein: IPZ represents the pozzolanic index of the aluminosilicate source; Q(MK) represents the quantity in grams of aluminosilicates present in the ettringitic binder; and Qm(C$) represents the amount in moles of calcium sulfate present in the ettringitic binder. - at least one source of aluminosilicate characterized by a pozzolanic activity index (PIZ) determined by the Chapelle test method, in a range from 200 to 2200 mg/g; - at least one source of calcium sulfate; - at least one source of calcium hydroxide; - at least one alkaline catalyst chosen from sodium fluoride, sodium aluminate, trisodium phosphate, sodium orthosilicate, sodium metasilicate, sodium hexafluorosilicate, sodium fluorophosphate, sodium hexametaphosphate, sodium carbonate, sodium borate, sodium hexafluoroaluminate, potassium tetrafluoroaluminate or mixtures thereof; and - at least one activator selected from compounds capable of complexing cations, preferably compounds capable of complexing calcium, aluminum and/or silicon; said ettringitic binder being characterized by - a calcium hydroxide saturation rate, denoted Sat(CH), in a range from 0.75 to 8; and - a calcium sulfate rate, denoted RMK, in a range from 0.05 to 1.25; the RMK parameter being defined by the following equation RMK = Qm C $ × 592000 IPZ × Q MK × 3 wherein: IPZ represents the pozzolanic index of the aluminosilicate source; Q(MK) represents the quantity in grams of aluminosilicates present in the ettringitic binder; and Qm(C$) represents the amount in moles of calcium sulfate present in the ettringitic binder. IPZ represents the pozzolanic index of the aluminosilicate source; Q(MK) represents the quantity in grams of aluminosilicates present in the ettringitic binder; and Qm(C$) represents the amount in moles of calcium sulfate present in the ettringitic binder.
VEHICLE LIFT, of the type that comprises, under the support plane of the vehicle, a lifting/lowering mechanism , consisting of at least two pairs of levers , articulated to one another in an intermediate section, which constitute the two forks, moved by at least one fluid-dynamic actuator which acts on a rocker arm of an articulated system , where said rocker arm supports at least one first roller and at least one second roller , arranged on respective external axes with respect to an intermediate rotation axis of the aforementioned rocker arm , said articulated system consisting of a rocker arm , whose two side walls are hinged to the two innermost levers , each one on a corresponding intermediate axis , and of two connecting rods with corresponding slits , whereas the connecting rods are held by two projecting pins , on which the corresponding slits slide, which are formed on said corresponding connecting rods , wherein the two opposite rollers are supported by the rocker arm , which, in the initial lifting step, being able to rotate angularly on the intermediate axis , through the effect of the thrust of the fluid-dynamic actuator , gradually lifts in combination with the opening of the fork, whereas said rollers are in kinematic contact with respective inclined surfaces ; afterwards in the lifting step, the first roller moves away from the inclined surface while only the second roller remains in kinematic contact with the respective inclined surface and, afterwards in the lifting step, the second roller also moves away from the inclined surface .
Clocked electronic energy converter having - an electronic switching element , - at least two electrical energy storage devices , - a first terminal for connecting to an electrical energy source, - a second terminal for connecting to an electrical energy sink, - a clock generator for controlling the electronic switching element during switching operation, - an input terminal for a first signal for adjusting a power to be transmitted by the energy converter , - a first timer connected to the clock generator and to the input terminal , for providing a second signal representing a switch-on time (t on ), the clock generator being designed to adjust the power to be transmitted by the energy converter in a first power range by means of the switch-on time (t on ) of the electronic switching element , and - a second timer connected to the clock generator and to the input terminal , for providing a third signal representing a supplemental switch-off time (t off_add ) in a second power range in which the power to be transmitted by the energy converter is less than in the first power range, the clock generator being designed to adjust the power to be transmitted by the energy converter in the second power range by means of a combination of the second and the third signal , characterized in that in the case of a change from the first power range into the second power range, the energy converter is configured to change the third signal by a predetermined value in order to achieve a greater supplemental switch-off time (t off_add ) and, at the same time, to change the second signal by a predetermined value in order to increase the switch-on time (t on ) , the transmitted power remaining the same in the case of a change from the first power range into the second power range, and the third signal being constant in sections over a power range. - an electronic switching element , - at least two electrical energy storage devices , - a first terminal for connecting to an electrical energy source, - a second terminal for connecting to an electrical energy sink, - a clock generator for controlling the electronic switching element during switching operation, - an input terminal for a first signal for adjusting a power to be transmitted by the energy converter , - a first timer connected to the clock generator and to the input terminal , for providing a second signal representing a switch-on time (t on ), the clock generator being designed to adjust the power to be transmitted by the energy converter in a first power range by means of the switch-on time (t on ) of the electronic switching element , and - a second timer connected to the clock generator and to the input terminal , for providing a third signal representing a supplemental switch-off time (t off_add ) in a second power range in which the power to be transmitted by the energy converter is less than in the first power range, the clock generator being designed to adjust the power to be transmitted by the energy converter in the second power range by means of a combination of the second and the third signal ,
A cardiac activity mapping system, comprising: a probe comprising at least one electrode configured to record electrical potential data V e from a heart chamber; and a computer configured to: transform the recorded electrical potential data V e into dipole density data v as a distribution on a surface of the heart chamber; generate a map of the distribution of dipole density data v for presenting on a display. a probe comprising at least one electrode configured to record electrical potential data V e from a heart chamber; and a computer configured to: transform the recorded electrical potential data V e into dipole density data v as a distribution on a surface of the heart chamber; generate a map of the distribution of dipole density data v for presenting on a display. transform the recorded electrical potential data V e into dipole density data v as a distribution on a surface of the heart chamber; generate a map of the distribution of dipole density data v for presenting on a display.
A pilot operated valve , comprising: a valve body having an inlet , an internal valving cavity, and an outlet ; a main valving member positioned in the internal valving cavity and operable to control a main flow of water from the inlet to the outlet ; wherein the main valving member includes a diaphragm positioned in the valve body to divide the internal valving cavity into an inlet chamber and an outlet chamber , and an insert operably coupled to and cooperating with the diaphragm ; characterized in that : the diaphragm defines at least one passageway therethrough positioned to cooperate with at least one tapered bleed slot defined in an outer wall of the insert and having a large bottom and a narrower top, such that the increasing taper of the bleed slot accelerates in-rushing water as it moves towards the narrower top of the bleed slot and into the outlet chamber . a valve body having an inlet , an internal valving cavity, and an outlet ; a main valving member positioned in the internal valving cavity and operable to control a main flow of water from the inlet to the outlet ; wherein the main valving member includes a diaphragm positioned in the valve body to divide the internal valving cavity into an inlet chamber and an outlet chamber , and an insert operably coupled to and cooperating with the diaphragm ; characterized in that : the diaphragm defines at least one passageway therethrough positioned to cooperate with at least one tapered bleed slot defined in an outer wall of the insert and having a large bottom and a narrower top, such that the increasing taper of the bleed slot accelerates in-rushing water as it moves towards the narrower top of the bleed slot and into the outlet chamber .
Surgical generator configured to output a high-frequency alternating voltage to a surgical ultrasound instrument , comprising a main control unit , an oscillator generating a driving oscillation and an inverter generating high-frequency alternating voltage dependent on the driving oscillation, the high frequency alternating voltage being supplied via a filter and a matching circuit to an output socket for connection of said surgical instrument , wherein a matching circuit is provided for matching power output of the inverter to said surgical instrument , characterized in that , the matching circuit is formed by a matching-coil emulation device configured to emulate a matching coil comprising a correction device acting on the driving oscillation, the correction device comprising a mixing unit and a feedback circuit whose input is connected to the output socket , wherein the feedback circuit calculates a correction signal supplied as an input to the mixing unit whose other input receives the driving oscillation, an output of the mixing unit being supplied to the inverter ; and an artificial phase generator configured to provide an artificial phase signal as an input to the oscillator , the artificial phase generator comprising an estimator for a virtual current in consideration of the emulated matching-coil and being configured to determine a phase shift between said virtual current and the measured output voltage, the artificial phase being different from a measured phase shift between output voltage and current. the matching circuit is formed by a matching-coil emulation device configured to emulate a matching coil comprising a correction device acting on the driving oscillation, the correction device comprising a mixing unit and a feedback circuit whose input is connected to the output socket , wherein the feedback circuit calculates a correction signal supplied as an input to the mixing unit whose other input receives the driving oscillation, an output of the mixing unit being supplied to the inverter ; and an artificial phase generator configured to provide an artificial phase signal as an input to the oscillator , the artificial phase generator comprising an estimator for a virtual current in consideration of the emulated matching-coil and being configured to determine a phase shift between said virtual current and the measured output voltage, the artificial phase being different from a measured phase shift between output voltage and current.
An electronic device , comprising: a camera ; a sensor circuit ; a memory ; and a processor configured to: obtain a plurality of first images including a region of interest, ROI, based on a first frame rate using the camera, detect a movement of the electronic device using the sensor circuit , identify a threshold related to the movement of the ROI as one of a first threshold based on the movement of the electronic device meeting a first predetermined range, or a second threshold that is larger than the first threshold based on the movement of the electronic device meeting a second predetermined range that is larger than the first predetermined range, obtain a plurality of second images based on a second frame rate that is larger than the first frame rate based on a pixel variation in the ROI exceeding the threshold, and provide a video related to a moving object using at least some of the plurality of first images and at least some of the plurality of second images. a camera ; a sensor circuit ; a memory ; and a processor configured to: obtain a plurality of first images including a region of interest, ROI, based on a first frame rate using the camera, detect a movement of the electronic device using the sensor circuit , identify a threshold related to the movement of the ROI as one of a first threshold based on the movement of the electronic device meeting a first predetermined range, or a second threshold that is larger than the first threshold based on the movement of the electronic device meeting a second predetermined range that is larger than the first predetermined range, obtain a plurality of second images based on a second frame rate that is larger than the first frame rate based on a pixel variation in the ROI exceeding the threshold, and provide a video related to a moving object using at least some of the plurality of first images and at least some of the plurality of second images. obtain a plurality of first images including a region of interest, ROI, based on a first frame rate using the camera, detect a movement of the electronic device using the sensor circuit , identify a threshold related to the movement of the ROI as one of a first threshold based on the movement of the electronic device meeting a first predetermined range, or a second threshold that is larger than the first threshold based on the movement of the electronic device meeting a second predetermined range that is larger than the first predetermined range, obtain a plurality of second images based on a second frame rate that is larger than the first frame rate based on a pixel variation in the ROI exceeding the threshold, and provide a video related to a moving object using at least some of the plurality of first images and at least some of the plurality of second images.
High-intensity active composition for pyrotechnic infra-red decoys, comprising a first fuel, at least one second fuel, an oxidizer and a binder, the first fuel and the oxidizer being selected in terms of their redox potentials in such a way that the oxidizer is able to oxidize the first fuel after ignition in an exothermic reaction, with formation of a primary flame and emission of infra-red radiation, the primary flame being an anaerobic flame, the second fuel in the course of the reaction being ignited, heated and/or pyrolysed and released from the high-intensity active composition , the second fuel being selected such that its redox potential or the redox potential of at least one pyrolysis product of the second fuel is higher than the redox potential of the first fuel and such that the heated or ignited second fuel or the pyrolysis product is able to burn in air, the amount of the oxidizer present in the high-intensity active composition being no more than the amount just sufficient to oxidize fully the first fuel, where the amount of oxidizer present in the high-intensity active composition is made such that the number of electrons to be given off in redox reactions by the total fuel in the high-intensity active composition exceeds the number of electrons which can be accepted by the oxidizer by a factor of at least 4, where the oxidizer is a halogen-containing polymer or a carbon fluoride, where the first fuel comprises magnesium, calcium, lithium, aluminium or an alloy or mixture of at least two of these metals, where the second fuel comprises aluminium, magnesium, titanium, zirconium, hafnium, niobium, tungsten, manganese, iron, nickel, cobalt, zinc, tin, lead, bismuth, an alloy or mixture of at least two of these metals, a zirconium-nickel alloy or mixture, an aluminium-magnesium alloy or mixture, a lithium-aluminium alloy or mixture, a lithium-silicon alloy or mixture, a calcium-aluminium alloy or mixture, an iron-titanium alloy or mixture, a zirconium-titanium alloy or mixture, boron, titanium hydride, zirconium hydride, a boron hydride, hafnium hydride, a lithium complex hydride, elemental carbon, expandable graphite, bituminous coal, charcoal, lignite coal, phosphorus, sulphur, silicon, sawdust or wood.