mhurhangee/patent-ind-claim-en huggingface dataset:
A wheel speed sensor system for a vehicle comprising: at least one wheel speed sensor associated with a wheel of the vehicle , the at least one wheel speed sensor comprising a first wheel speed sensing element and a second wheel speed sensing element , wherein the first and second wheel speed sensing elements are arranged in a single package and configured to generate respectively a first sensed signal (2.1) and a second sensed signal (3.1); a first signal treatment unit and a second signal treatment unit configured to process respectively the first and second sensed signals (2.1, 3.1) received from the first and second wheel speed sensing elements , and to generate respectively a first wheel speed signal (4.1) and a second wheel speed signal (5.1) representative of a wheel speed; characterised by a signal combination unit communicatively coupled to the first and second signal treatment units and to a first and a second electronic control unit , said signal combination unit being configured to process and combine the first and second wheel speed signals (4.1, 5.1) received from the first and second signal treatment units and to simultaneously output a combined signal (6.1) to the first and second electronic control units ; and a power management unit configured to independently deliver electrical energy (7.1, 7.2) to the first and second wheel speed sensing elements , wherein the power management unit is connected to the first and second electronic control units so that the electrical energy (8.1, 9.1) is transferred from one or both the electronic control units to the power management unit . at least one wheel speed sensor associated with a wheel of the vehicle , the at least one wheel speed sensor comprising a first wheel speed sensing element and a second wheel speed sensing element , wherein the first and second wheel speed sensing elements are arranged in a single package and configured to generate respectively a first sensed signal (2.1) and a second sensed signal (3.1); a first signal treatment unit and a second signal treatment unit configured to process respectively the first and second sensed signals (2.1, 3.1) received from the first and second wheel speed sensing elements , and to generate respectively a first wheel speed signal (4.1) and a second wheel speed signal (5.1) representative of a wheel speed; characterised by a signal combination unit communicatively coupled to the first and second signal treatment units and to a first and a second electronic control unit , said signal combination unit being configured to process and combine the first and second wheel speed signals (4.1, 5.1) received from the first and second signal treatment units and to simultaneously output a combined signal (6.1) to the first and second electronic control units ; and a power management unit configured to independently deliver electrical energy (7.1, 7.2) to the first and second wheel speed sensing elements , wherein the power management unit is connected to the first and second electronic control units so that the electrical energy (8.1, 9.1) is transferred from one or both the electronic control units to the power management unit .
Soft gelatin capsule having inside a fill comprising a pharmaceutically active ingredient selected from diclofenac, diclofenac-epolamine (DHEP), tadalafil, or salts thereof, wherein the wall of said capsule comprises hydroxypropyl beta cyclodextrin (HPBCD) in an amount being: (a) less than 10% by weight on the weight of the wall and (b) sub-stoichiometric to form an inclusion complex with said active ingredient present in the fill.
A non-aqueous magenta ink composition for ink jet printing comprising a pigment, a pigment dispersant, a binder resin and an organic solvent, wherein the pigment comprises C.I. Pigment Red 254 and a red pigment having a quinacridone skeleton, and wherein a total amount of the C.I. Pigment Red 254 and the red pigment having a quinacridone skeleton is not less than 50% by mass in the pigment, and wherein the compounding ratio of the C.I. Pigment Red 254 to the red pigment having a quinacridone skeleton is 4:6 to 6:4, and wherein the organic solvent comprises alkylene glycol dialkyl ether. wherein the pigment comprises C.I. Pigment Red 254 and a red pigment having a quinacridone skeleton, and wherein a total amount of the C.I. Pigment Red 254 and the red pigment having a quinacridone skeleton is not less than 50% by mass in the pigment, and wherein the compounding ratio of the C.I. Pigment Red 254 to the red pigment having a quinacridone skeleton is 4:6 to 6:4, and wherein the organic solvent comprises alkylene glycol dialkyl ether.
A metal intercalated polymeric fullerene, characterized in that it has a quasi-hexagonal crystal cell structure, wherein the metal is magnesium, lithium, potassium, or sodium; wherein, the quasi-hexagonal structure includes a central fullerene and six side fullerenes which surround the central fullerene and are arranged in a hexagonal shape, and bond with the central fullerene respectively; wherein, the central fullerene is connected to four of the side fullerenes through one C-C single bond respectively, and to two of the side fullerenes through two C-C single bonds respectively; wherein, the six side fullerenes include a first side fullerene, a second side fullerene, a third side fullerene, a fourth side fullerene, a fifth side fullerene, and a sixth side fullerene; the central fullerene is connected to each of the first side fullerene, the second side fullerene, the fourth side fullerene, and the fifth side fullerene through one C-C single bond respectively; the central fullerene is connected to each of the third side fullerene and the sixth side fullerene through two C-C single bonds respectively, and the four carbon atoms in the two C-C single bonds form a quaternary ring structure. characterized in that it has a quasi-hexagonal crystal cell structure, wherein the metal is magnesium, lithium, potassium, or sodium; wherein, the quasi-hexagonal structure includes a central fullerene and six side fullerenes which surround the central fullerene and are arranged in a hexagonal shape, and bond with the central fullerene respectively; wherein, the central fullerene is connected to four of the side fullerenes through one C-C single bond respectively, and to two of the side fullerenes through two C-C single bonds respectively; wherein, the six side fullerenes include a first side fullerene, a second side fullerene, a third side fullerene, a fourth side fullerene, a fifth side fullerene, and a sixth side fullerene; the central fullerene is connected to each of the first side fullerene, the second side fullerene, the fourth side fullerene, and the fifth side fullerene through one C-C single bond respectively; the central fullerene is connected to each of the third side fullerene and the sixth side fullerene through two C-C single bonds respectively, and the four carbon atoms in the two C-C single bonds form a quaternary ring structure.
A method comprising: providing power from a power source comprising a generator or an inverter to an AC electrical power distribution system that is operable to selectively couple the power source to any of a plurality of different loads ; and signaling a capacity of the power source over the AC electrical power distribution system by controlling the generator or the inverter to set a frequency of an AC voltage produced by the generator or the inverter at respective frequency levels corresponding to respective capacity levels. providing power from a power source comprising a generator or an inverter to an AC electrical power distribution system that is operable to selectively couple the power source to any of a plurality of different loads ; and signaling a capacity of the power source over the AC electrical power distribution system by controlling the generator or the inverter to set a frequency of an AC voltage produced by the generator or the inverter at respective frequency levels corresponding to respective capacity levels.
A workout equipment comprising a frame , a movable arm pivotally connected to the frame , the movable arm having a first end, a second end, a first guide and a second guide , at least one movable load unit supported by said first and second guides of said movable arm and load transfer means configured to move said load unit along said movable arm said load transfer means comprising a threaded rod having a first end and a second end, which threaded rod is parallel to said first and second guides and said load unit has a threaded aperture through which the threaded rod projects and a locking device for locking the load unit steplessly on the first and second guides , characterized in that said load unit comprises a row of weight plates connected together to a single unit with connecting bars , the opposing sides of the weight plates having slots , which form a three-sided channel on the opposing sides of the load unit extending through the whole load unit, the first guide is placed into the first channel and the second guide is placed into the second channel the outer dimensions of the first and second guides being slightly smaller than the dimensions of the channel and there is a slide bearing in both ends of the channel.
Coating device for coating motor vehicle body parts with a multi-axis robot having a multi-axis robot hand axis on which an application device applying the coating agent is mounted, wherein the application device is a print head which discharges the coating agent from a plurality of coating agent nozzles, characterised in that - the print head is arranged in a painting cabin , in which the body parts are coated with the coating agent, - all coating agent nozzles of the print head are commonly connected to one single coating agent supply line and therefore apply the same coating agent, - and, whilst a wash-out arranged under the painting cabin for overspray generated in the painting cabin is dispensed with, an air extractor is provided which extracts the cabin air from the painting cabin downwards and/or through side channels. - the print head is arranged in a painting cabin , in which the body parts are coated with the coating agent, - all coating agent nozzles of the print head are commonly connected to one single coating agent supply line and therefore apply the same coating agent, - and, whilst a wash-out arranged under the painting cabin for overspray generated in the painting cabin is dispensed with, an air extractor is provided which extracts the cabin air from the painting cabin downwards and/or through side channels.
Head support for a seat, in particular a vehicle seat, having a head contact device with a head contact region , which forms a head contact surface and having a bearing device , wherein the head contact device is mounted on the bearing device and wherein the bearing device can be mounted on a vehicle seat, wherein the head contact device is formed as one-piece, in particular as a plastic injection moulded part, and wherein the head contact device is formed as a shaped plate, characterised in that the head contact region has a free end and free side regions and a lower end region of the head contact region is connected to the bearing device , wherein a bearing region of the head contact device is formed like a clamp and has a lower region extending horizontally, a further section extending horizontally and a region extending vertically. wherein the head contact device is formed as one-piece, in particular as a plastic injection moulded part, and wherein the head contact device is formed as a shaped plate, characterised in that the head contact region has a free end and free side regions and a lower end region of the head contact region is connected to the bearing device , wherein a bearing region of the head contact device is formed like a clamp and has a lower region extending horizontally, a further section extending horizontally and a region extending vertically.
Construction system comprising a first construction element and a second construction element , wherein the first construction element comprises a first connector (16; 602), wherein the first connector (16; 602) has a first longitudinal extension (L1; L'1) and comprises an aperture (24; 606), and the second construction element comprises a second connector (18; 604), wherein the second connector (18; 604) has a second longitudinal extension (L2; L'2), and the second connector (18; 604) of the second construction element with its longitudinal extension (L2; L'2) can be inserted into the aperture (24; 606) of the first connector (16; 602) of the first construction element , wherein coupling of the first construction element to the second construction element results only following pivoting of the second connector (18; 604) relative to the first connector (16; 602) following insertion of the second connector (18; 604) into the aperture (24; 606), characterized in that the first connector (16; 602) and the second connector (18; 604) are designed such that coupling of the first construction element to the second construction element results only following pivoting of the second connector (18; 604) along the longitudinal axis (L2; L'2) thereof, relative to the first connector (16; 602).
A battery diagnosing system , comprising: a BMS configured to obtain battery information including at least one of temperature, current and voltage of a battery and generate a first diagnosis result corresponding to a current state of the battery based on the battery information; and a server configured to receive the battery information and the first diagnosis result from the BMS , generate a second diagnosis result corresponding to the current state of the battery and a third diagnosis result corresponding to a future state of the battery from the battery information based on a pre-trained state estimation model, and determine the current state of the battery based on a plurality of diagnosis results for the first diagnosis result, the second diagnosis result and the third diagnosis result. a BMS configured to obtain battery information including at least one of temperature, current and voltage of a battery and generate a first diagnosis result corresponding to a current state of the battery based on the battery information; and a server configured to receive the battery information and the first diagnosis result from the BMS , generate a second diagnosis result corresponding to the current state of the battery and a third diagnosis result corresponding to a future state of the battery from the battery information based on a pre-trained state estimation model, and determine the current state of the battery based on a plurality of diagnosis results for the first diagnosis result, the second diagnosis result and the third diagnosis result.
A vapor delivery device comprising: a reservoir , configured to contain an amount of fluid ; an ejector , configured to be coupled to the reservoir to receive the fluid ; characterized by a drop counting module, configured to predict change in drop volume, so to detect the amount of the fluid in the reservoir ; and a controller , configured to fire the ejector to express a given dosage of the fluid through a number of nozzles in the ejector into an airstream at a firing frequency and for a firing duration, wherein the controller is configured to control the ejector to maintain the given dosage of the fluid . as the amount of the fluid within the reservoir decreases, the controller is configured to adjust at least one of the firing frequency of the ejector , the number of nozzles , and the firing duration. a reservoir , configured to contain an amount of fluid ; an ejector , configured to be coupled to the reservoir to receive the fluid ; characterized by a drop counting module, configured to predict change in drop volume, so to detect the amount of the fluid in the reservoir ; and a controller , configured to fire the ejector to express a given dosage of the fluid through a number of nozzles in the ejector into an airstream at a firing frequency and for a firing duration, wherein the controller is configured to control the ejector to maintain the given dosage of the fluid . as the amount of the fluid within the reservoir decreases, the controller is configured to adjust at least one of the firing frequency of the ejector , the number of nozzles , and the firing duration.
Device for cleaning a plant part to be cleaned in a beverage filling plant, comprising a medium flow pipe for supplying a cleaning medium to the plant part to be cleaned, and having a medium return pipe for discharging the used cleaning medium from the plant part to be cleaned, such that the cleaning medium is guided in a circuit, wherein a heating device is provided for heating the cleaning medium in the medium flow pipe , and a recuperator for transferring heat energy from the cleaning medium discharged via the medium return pipe to the cleaning medium to be supplied to the heating device .
A circuit for performing neural network computations for a neural network comprising a plurality of layers, the circuit comprising: a systolic array comprising a plurality of cells, wherein each cell of the plurality of cells comprises: a weight path register configured to store a weight input shifted to the cell; a weight register coupled to the weight path register for storing a weight input; a weight control register configured to determine whether to store the weight input in the weight register ; a weight fetcher unit configured to, for each of the plurality of neural network layers, send, for the neural network layer, a plurality of weight inputs to cells along a first dimension of the systolic array ; and a plurality of weight sequencer units , each weight sequencer unit coupled to a distinct cell along the first dimension of the systolic array , the plurality of weight sequencer units configured to, for each of the plurality of neural network layers: based on a control value stored by the weight sequence unit , shift, for the neural network layer, the plurality of weight inputs to cells along the second dimension of the systolic array over a plurality of clock cycles, where each weight input is stored inside a respective cell along the second dimension using the weight register , and where each cell is configured to compute a product of an activation input and a respective weight input using multiplication circuitry . a systolic array comprising a plurality of cells, wherein each cell of the plurality of cells comprises: a weight path register configured to store a weight input shifted to the cell; a weight register coupled to the weight path register for storing a weight input; a weight control register configured to determine whether to store the weight input in the weight register ; a weight path register configured to store a weight input shifted to the cell; a weight register coupled to the weight path register for storing a weight input; a weight control register configured to determine whether to store the weight input in the weight register ; a weight fetcher unit configured to, for each of the plurality of neural network layers, send, for the neural network layer, a plurality of weight inputs to cells along a first dimension of the systolic array ; and a plurality of weight sequencer units , each weight sequencer unit coupled to a distinct cell along the first dimension of the systolic array , the plurality of weight sequencer units configured to, for each of the plurality of neural network layers: based on a control value stored by the weight sequence unit , shift, for the neural network layer, the plurality of weight inputs to cells along the second dimension of the systolic array over a plurality of clock cycles, where each weight input is stored inside a respective cell along the second dimension using the weight register , and where each cell is configured to compute a product of an activation input and a respective weight input using multiplication circuitry .
An instrument for biological analysis, comprising: an excitation source ; an optical sensor configured to receive emissions from at least one biological sample in response to the excitation source; an excitation optical system disposed along an excitation optical path ; an emission optical system disposed along an emission optical path ; a sensor lens configured to direct emissions from at least some of the biological sample onto the optical sensor; a cover disposed in the excitation path immediately adjacent to the at least one sample, the cover having an illuminated surface which, when illuminated by the excitation light, produces reflected radiation comprising radiation from the excitation source that is reflected by the illuminated surface; and a radiation shield , wherein: the radiation shield comprises a sensor aperture disposed along the emission optical path and a blocking structure configured to cooperate with the sensor aperture such that, of the radiation which is reflected by the illuminated surface, only that which is subsequently reflected by another surface of the instrument is received by the optical sensor. an excitation source ; an optical sensor configured to receive emissions from at least one biological sample in response to the excitation source; an excitation optical system disposed along an excitation optical path ; an emission optical system disposed along an emission optical path ; a sensor lens configured to direct emissions from at least some of the biological sample onto the optical sensor; a cover disposed in the excitation path immediately adjacent to the at least one sample, the cover having an illuminated surface which, when illuminated by the excitation light, produces reflected radiation comprising radiation from the excitation source that is reflected by the illuminated surface; and a radiation shield , wherein: the radiation shield comprises a sensor aperture disposed along the emission optical path and a blocking structure configured to cooperate with the sensor aperture such that, of the radiation which is reflected by the illuminated surface, only that which is subsequently reflected by another surface of the instrument is received by the optical sensor.