mhurhangee/ep-ind-claims huggingface dataset:
Method for adapting settings of an engine to the consumption of a nitrogen oxide reducing agent on board a vehicle, the vehicle comprising an engine and a tank of nitrogen oxide reducing agent, characterised in that the method comprises: - the estimation of a distance remaining to be travelled by the vehicle before the tank of reducing agent is empty according to the history of the consumption of reducing agent, - comparison of the estimation of the remaining distance with a predetermined distance representing an objective of sustainability between two fillings of the tank of nitrogen oxide reducing agent, - adjustment of air and fuel injected into the engine according to the comparison, - adjustment of the injection of reducing agent according to the air and fuel setting, with → firstly a reduction in the consumption of fuel to the detriment of the consumption of reducing agent when the forecasts of consumption of reducing agent show that a greater consumption is possible, and → secondly a reduction in consumption of reducing agent to the detriment of the consumption of fuel when the forecasts of consumption of reducing agent show that a lower consumption is required, so that the vehicle achieves the objective of sustainability between two fillings of the tank of reducing agent. - the estimation of a distance remaining to be travelled by the vehicle before the tank of reducing agent is empty according to the history of the consumption of reducing agent, - comparison of the estimation of the remaining distance with a predetermined distance representing an objective of sustainability between two fillings of the tank of nitrogen oxide reducing agent, - adjustment of air and fuel injected into the engine according to the comparison, - adjustment of the injection of reducing agent according to the air and fuel setting, with → firstly a reduction in the consumption of fuel to the detriment of the consumption of reducing agent when the forecasts of consumption of reducing agent show that a greater consumption is possible, and → secondly a reduction in consumption of reducing agent to the detriment of the consumption of fuel when the forecasts of consumption of reducing agent show that a lower consumption is required, so that the vehicle achieves the objective of sustainability between two fillings of the tank of reducing agent.
Software embodied in a computer-readable medium and operable upon execution by at least one processor to perform the following steps: receiving biometric information for a patient; determining based on the biometric information an astigmatic correction, the astigmatic correction produced by a combination of (a) a position for one or more limbal relaxing incisions and (b) a power and an orientation for a toric intraocular lens wherein a degree of astigmatic correction is allocated to each of the two components of the astigmatic correction in a first ratio between the percentage of the astigmatic correction attributable to the limbal relaxing incisions, LRIs, and the percentage of the astigmatic correction attributable to the toric intraocular lens, IOL; generating an output comprising the astigmatic correction; characterised by the steps of: receiving a selection of a different ratio of astigmatic correction attributable to the one or more limbal relaxing incisions and the toric IOL; determining, based on the received different ratio of astigmatic correction, an updated astigmatic correction including at least one of (a) an updated position for the one or more limbal relaxing incisions and (b) an updated power and/or orientation of the toric IOL. receiving biometric information for a patient; determining based on the biometric information an astigmatic correction, the astigmatic correction produced by a combination of (a) a position for one or more limbal relaxing incisions and (b) a power and an orientation for a toric intraocular lens wherein a degree of astigmatic correction is allocated to each of the two components of the astigmatic correction in a first ratio between the percentage of the astigmatic correction attributable to the limbal relaxing incisions, LRIs, and the percentage of the astigmatic correction attributable to the toric intraocular lens, IOL; generating an output comprising the astigmatic correction; characterised by the steps of: receiving a selection of a different ratio of astigmatic correction attributable to the one or more limbal relaxing incisions and the toric IOL; determining, based on the received different ratio of astigmatic correction, an updated astigmatic correction including at least one of (a) an updated position for the one or more limbal relaxing incisions and (b) an updated power and/or orientation of the toric IOL. receiving a selection of a different ratio of astigmatic correction attributable to the one or more limbal relaxing incisions and the toric IOL; determining, based on the received different ratio of astigmatic correction, an updated astigmatic correction including at least one of (a) an updated position for the one or more limbal relaxing incisions and (b) an updated power and/or orientation of the toric IOL.
A square baler having a baling chamber of which the side walls (60, 62) are movable by respective hydraulic actuators (30,32), the supply of hydraulic fluid to and from the two hydraulic actuators (30,32) is effected by a common control circuit that ensures that the two sides walls (60, 62) are displaced in synchronism with one another by equal and opposite amounts characterised in that the hydraulic actuators (30,32) are double acting hydraulic cylinders and wherein the flow of hydraulic fluid to corresponding working chambers (30a, 32a; 30b, 32b) of the two hydraulic cylinders (30,32) is regulated by a metering valve (36,34) having two ganged movable fluid displacement elements (37a, 37b; 35a, 35b).
A pressure safety system for electrosurgical instruments providing pressurized ionized gas to a surgical site, comprising: a first pressure change member having an input side connectable to a source of pressurized ionizable gas and an output side; a second pressure change member having an input side connected to the output side of the first pressure change member and an output side, the second pressure change member being configured to inhibit pressurized gas from exiting the output side of the second pressure change member in the event the gas pressure at the input side of the second pressure change member exceeds a second predetermined value,; and a third pressure change member having an input side connected to the output side of the second pressure change member and an output side, said system being characterized in that the first pressure change member is configured to release pressurized gas from the source of pressurized ionizable gas into the environment in the event the gas pressure at the output side of the first pressure change member exceeds a first predetermined value, wherein the second pressure change member is a shut-off valve and in that the third pressure change member is configured to release pressurized gas from the first and second pressure change members and the source of pressurized ionizable gas to the environment in the event the gas pressure at the output side of the second pressure change member exceeds a third predetermined value. a first pressure change member having an input side connectable to a source of pressurized ionizable gas and an output side; a second pressure change member having an input side connected to the output side of the first pressure change member and an output side, the second pressure change member being configured to inhibit pressurized gas from exiting the output side of the second pressure change member in the event the gas pressure at the input side of the second pressure change member exceeds a second predetermined value,; and a third pressure change member having an input side connected to the output side of the second pressure change member and an output side, said system being characterized in that the first pressure change member is configured to release pressurized gas from the source of pressurized ionizable gas into the environment in the event the gas pressure at the output side of the first pressure change member exceeds a first predetermined value, wherein the second pressure change member is a shut-off valve and in that the third pressure change member is configured to release pressurized gas from the first and second pressure change members and the source of pressurized ionizable gas to the environment in the event the gas pressure at the output side of the second pressure change member exceeds a third predetermined value.
A sensor chip, comprising: a light reception section configured to receive light projected from a light source and reflected by an imaging object to detect, for each given detection period, a reception light amount of the reflected light within the given period; a measurement section configured to measure a distance to the imaging object based on the reception light amount; and a control section configured to apply a first delay amount and a second delay amount, wherein the first delay amount is applied in a unit of a first time length (tdl) and the second delay amount is applied in a unit of a second time length, where the first time length (tdl) and the second time length are different from each other, to control of a first timing (I 11; I 12) at which the light reception section is to detect the reception light amount thereby to control a relative time difference between the first timing and a second timing (I 11; I 12) at which the light source is to project light with a resolution finer than the unit of the first time length of the first delay amount and the unit of the second time length of the second delay amount by satisfying the relationship td1 - td2 < td2 < td1, wherein td1 is the unit of the first time length and td2 is the unit of the second time length, in response to the first delay amount and the second delay amount, wherein the first delay amount is applied to the first timing (I 11; I 12) and is controlled in a unit of the first time length, and the second delay amount is applied to the second timing (I 11; I 12) and is controlled in a unit of the second time length. a light reception section configured to receive light projected from a light source and reflected by an imaging object to detect, for each given detection period, a reception light amount of the reflected light within the given period; a measurement section configured to measure a distance to the imaging object based on the reception light amount; and a control section configured to apply a first delay amount and a second delay amount, wherein the first delay amount is applied in a unit of a first time length (tdl) and the second delay amount is applied in a unit of a second time length, where the first time length (tdl) and the second time length are different from each other, to control of a first timing (I 11; I 12) at which the light reception section is to detect the reception light amount thereby to control a relative time difference between the first timing and a second timing (I 11; I 12) at which the light source is to project light with a resolution finer than the unit of the first time length of the first delay amount and the unit of the second time length of the second delay amount by satisfying the relationship td1 - td2 < td2 < td1, wherein td1 is the unit of the first time length and td2 is the unit of the second time length, in response to the first delay amount and the second delay amount, wherein the first delay amount is applied to the first timing (I 11; I 12) and is controlled in a unit of the first time length, and the second delay amount is applied to the second timing (I 11; I 12) and is controlled in a unit of the second time length.
An adaptive level estimator for providing a level estimate of an electric input signal representing sound, wherein the adaptive level estimator comprises • a first level estimator configured to provide a first level estimate of the electric input signal in a first number K1 of frequency bands; • a second level estimator configured to provide a second level estimate of the electric input signal in a second number K2 of frequency bands, wherein K2 is smaller than K1; characterised by • a level control unit (CONT) configured to provide a resulting level estimate based on said first and said second level estimates. • a first level estimator configured to provide a first level estimate of the electric input signal in a first number K1 of frequency bands; • a second level estimator configured to provide a second level estimate of the electric input signal in a second number K2 of frequency bands, wherein K2 is smaller than K1; characterised by • a level control unit (CONT) configured to provide a resulting level estimate based on said first and said second level estimates.
Filter module having a plurality of filter elements (21, 22) for separating overspray out of an air stream, wherein the filter module has a reusable and cleanable rack as supporting structure for accommodating components for absorbing overspray, and a plurality of components for absorbing overspray, which are inserted into the rack, characterized in that the components for absorbing overspray involve at least filter elements (21, 22) and liners in the rack that are designed for single use as disposable products, in that the filter elements form at least a first filter stage, and in that all those surfaces of the rack before the first filter stage which are impinged on by the air stream are provided with the liners such that said surfaces of the rack are protected from overspray. wherein the filter module has a reusable and cleanable rack as supporting structure for accommodating components for absorbing overspray, and a plurality of components for absorbing overspray, which are inserted into the rack, characterized in that the components for absorbing overspray involve at least filter elements (21, 22) and liners in the rack that are designed for single use as disposable products, in that the filter elements form at least a first filter stage, and in that all those surfaces of the rack before the first filter stage which are impinged on by the air stream are provided with the liners such that said surfaces of the rack are protected from overspray.
A device, comprising: a substrate; and solar cells individually attached to the substrate, each of the solar cells having at least one cropped corner, the cropped corner defining a corner region such that an area of the substrate remains exposed, the corner region including a front contact on a front side of the respective solar cell; and multiple grids on a front surface of the solar cells; wherein: each of the grids is configured to collect current generated by respective one of the solar cells, the substrate includes one or more buried conductors configured to carry current to all of the cropped corners of a respective one of the solar cells, each of the grids terminates at one of the front contacts of the respective one of the solar cells, and electrical connections are made to the grids in a plurality of locations positioned around a perimeter of the respective one of the solar cells and to the buried conductors of the substrate via the front contacts in the cropped corners of the respective one of the solar cells. a substrate; and solar cells individually attached to the substrate, each of the solar cells having at least one cropped corner, the cropped corner defining a corner region such that an area of the substrate remains exposed, the corner region including a front contact on a front side of the respective solar cell; and multiple grids on a front surface of the solar cells; wherein: each of the grids is configured to collect current generated by respective one of the solar cells, the substrate includes one or more buried conductors configured to carry current to all of the cropped corners of a respective one of the solar cells, each of the grids terminates at one of the front contacts of the respective one of the solar cells, and electrical connections are made to the grids in a plurality of locations positioned around a perimeter of the respective one of the solar cells and to the buried conductors of the substrate via the front contacts in the cropped corners of the respective one of the solar cells. each of the grids is configured to collect current generated by respective one of the solar cells, the substrate includes one or more buried conductors configured to carry current to all of the cropped corners of a respective one of the solar cells, each of the grids terminates at one of the front contacts of the respective one of the solar cells, and electrical connections are made to the grids in a plurality of locations positioned around a perimeter of the respective one of the solar cells and to the buried conductors of the substrate via the front contacts in the cropped corners of the respective one of the solar cells.
A pouch having a form of a free-standing pouch, comprising: a bag (110, 20) including a bag body (40, 131, 231) forming an internal space (29, 119, 219) for accommodating a content, a bottom gusset (50, 132, 232) which supports the bag body (40, 131, 231), and a first opening (43, 135, 235), the bag (20, 110, 210) being adapted to place the content in the internal space (29, 119, 219) through the first opening (43, 135, 235); a fastener (170, 270, 800, 1000) for opening and closing the first opening (43, 135, 235), and an opening sealing portion (151, 251) for closing the first opening (43, 135, 235) provided with the fastener (170, 270, 800, 1000), wherein the bag (20, 110, 210) further includes a second opening (61, 136, 236) and is adapted to place the content into the internal space (29, 119, 219) through the second opening (61, 136, 236), wherein the fastener (170, 270, 800, 1000) and the first opening (43, 135, 235) are both formed at an upper edge (27, 117, 217) of the bag (20, 110, 210), and wherein the second opening (61, 136, 236) is formed at a first side edge (25, 115, 215) of the bag (20, 110, 210) which is different from the upper edge (27, 117, 217) of the first opening (43, 135, 235), the first side edge (25, 115, 215) being continuous with the upper edge (27, 117, 217) at a first corner (21, 111, 211) of the bag (20, 110, 210), characterized in that the second opening (61, 136, 236) is formed in a protruding portion (60; 133; 233) extending outward in the widthwise direction from a first lateral portion (41, 131A, 231A) being part of the bag body (40, 131, 231). a bag (110, 20) including a bag body (40, 131, 231) forming an internal space (29, 119, 219) for accommodating a content, a bottom gusset (50, 132, 232) which supports the bag body (40, 131, 231), and a first opening (43, 135, 235), the bag (20, 110, 210) being adapted to place the content in the internal space (29, 119, 219) through the first opening (43, 135, 235); a fastener (170, 270, 800, 1000) for opening and closing the first opening (43, 135, 235), and an opening sealing portion (151, 251) for closing the first opening (43, 135, 235) provided with the fastener (170, 270, 800, 1000), wherein the bag (20, 110, 210) further includes a second opening (61, 136, 236) and is adapted to place the content into the internal space (29, 119, 219) through the second opening (61, 136, 236), wherein the fastener (170, 270, 800, 1000) and the first opening (43, 135, 235) are both formed at an upper edge (27, 117, 217) of the bag (20, 110, 210), and wherein the second opening (61, 136, 236) is formed at a first side edge (25, 115, 215) of the bag (20, 110, 210) which is different from the upper edge (27, 117, 217) of the first opening (43, 135, 235), the first side edge (25, 115, 215) being continuous with the upper edge (27, 117, 217) at a first corner (21, 111, 211) of the bag (20, 110, 210), characterized in that the second opening (61, 136, 236) is formed in a protruding portion (60; 133; 233) extending outward in the widthwise direction from a first lateral portion (41, 131A, 231A) being part of the bag body (40, 131, 231).
An arrester for protecting against overvoltages, having: - at least one first and one second electrode (2, 3), - a ceramic body for electrical isolation of the electrodes (2, 3), wherein - the electrodes (2, 3) are spaced apart from one another by a distance in the direction of a transverse axis of the arrester, - the distance between the electrodes (2, 3) varies along a longitudinal axis of the arrester, - the electrodes (2, 3) each have a central recess, wherein the recesses of the electrodes (2, 3) are configured opposite one another around the longitudinal axis of the arrester, characterized in that the arrester has a third electrode, wherein the third electrode is arranged between the first and the second electrode (2, 3), and wherein the third electrode is free from a recess, - the respective central recess has a diameter, wherein the electrodes (2, 3, 4) have an internal diameter, and wherein 0.7 ≤ (D2/D1) • A ≤ 1.3. - at least one first and one second electrode (2, 3), - a ceramic body for electrical isolation of the electrodes (2, 3), wherein - the electrodes (2, 3) are spaced apart from one another by a distance in the direction of a transverse axis of the arrester, - the distance between the electrodes (2, 3) varies along a longitudinal axis of the arrester, - the electrodes (2, 3) each have a central recess, wherein the recesses of the electrodes (2, 3) are configured opposite one another around the longitudinal axis of the arrester, - the respective central recess has a diameter, wherein the electrodes (2, 3, 4) have an internal diameter, and wherein 0.7 ≤ (D2/D1) • A ≤ 1.3.
A method of operating a building heating system, the heating system comprising a heater, a plurality of space heaters (8, 10, 12), a thermal store and a delivery network connecting the space heaters (8, 10, 12) to the heater and the thermal store, the method comprising, at the end of a heating mode where space heating is being stopped, opening a fluid flow path to the thermal store and operating a pump to pass warm fluid in the delivery network and the space heaters (8, 10, 12) through the thermal store to give heat up to the thermal store.
A machine for the production of an edible semifreddo product or a product of a similar type, comprising: - a container into which to introduce a preparation; - a loading arrangement comprising an opening for introducing said preparation into said container; - stirring means arranged so that they can turn within said container and designed to mix the preparation introduced into the container; - cooling means designed to cool the inside of the container; and - means for dispensing said product from said container; said machine being characterized in that said loading arrangement comprises means designed to receive a sealed disposable cartridge containing said preparation, means designed to tear said cartridge, and means designed to position said cartridge so as to enable pouring by gravity into said container, through said opening, of the preparation that comes out of the torn part of said cartridge. - a container into which to introduce a preparation; - a loading arrangement comprising an opening for introducing said preparation into said container; - stirring means arranged so that they can turn within said container and designed to mix the preparation introduced into the container; - cooling means designed to cool the inside of the container; and - means for dispensing said product from said container;