mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a power supply (106, 110, 112, 132, 142, 206, 306, 506, 654) electrical current capacity, the method comprising: placing an operating circuit (210, 310, 564, 652) into an operating mode that causes the operating circuit to have a determined electrical current consumption; configuring a charging circuit (226, 326, 526, 622) to provide a maximum charging current to a power pack (218, 318, 518, 624), wherein the charging circuit is electrically connected in parallel with the operating circuit; receiving, subsequent to the configuring, a value of a measured charging current provided to the power pack; and determining, subsequent to the receiving, an electrical current supply capacity value of an external power supply (106,110, 12, 132, 142, 206, 306, 506, 654), the determining comprising adding the value of the measured charging current provided to the power pack and the determined electrical current consumption for the operating mode of the operating circuit. placing an operating circuit (210, 310, 564, 652) into an operating mode that causes the operating circuit to have a determined electrical current consumption; configuring a charging circuit (226, 326, 526, 622) to provide a maximum charging current to a power pack (218, 318, 518, 624), wherein the charging circuit is electrically connected in parallel with the operating circuit; receiving, subsequent to the configuring, a value of a measured charging current provided to the power pack; and determining, subsequent to the receiving, an electrical current supply capacity value of an external power supply (106,110, 12, 132, 142, 206, 306, 506, 654), the determining comprising adding the value of the measured charging current provided to the power pack and the determined electrical current consumption for the operating mode of the operating circuit.
A system for controlling fluid flow, the system comprising: - a valve assembly comprising: - a valve body having a valve chamber and a plurality of ports (106, 108, 110) into the valve chamber; - a valve member controllably movable relative to the valve body and configured to modulate fluid flow through the valve assembly; and - a valve stem coupled to the valve member and comprising a first keying feature; and - an actuator comprising a second keying feature, the actuator configured to controllably rotate the valve member relative to the valve body; - a controller configured to operate the actuator to switch between at least one of multiple fluid supplies or multiple fluid returns; and - a pointer arm coupled to the actuator via a gear mechanism and configured to indicate an orientation of the valve member; wherein the first keying feature and the second keying feature are configured to align the valve assembly relative to the actuator, wherein the first keying feature comprises a notch and the second keying feature comprises a protrusion, the protrusion configured to fit within the notch when the valve stem is correctly oriented relative to the actuator. - a valve assembly comprising: - a valve body having a valve chamber and a plurality of ports (106, 108, 110) into the valve chamber; - a valve member controllably movable relative to the valve body and configured to modulate fluid flow through the valve assembly; and - a valve stem coupled to the valve member and comprising a first keying feature; and - a valve body having a valve chamber and a plurality of ports (106, 108, 110) into the valve chamber; - a valve member controllably movable relative to the valve body and configured to modulate fluid flow through the valve assembly; and - a valve stem coupled to the valve member and comprising a first keying feature; and - an actuator comprising a second keying feature, the actuator configured to controllably rotate the valve member relative to the valve body; - a controller configured to operate the actuator to switch between at least one of multiple fluid supplies or multiple fluid returns; and - a pointer arm coupled to the actuator via a gear mechanism and configured to indicate an orientation of the valve member;
Use of an active-ingredient composition or an active-ingredient formulation for controlling fungal plant diseases, wherein the phytopathogenic fungi to be controlled include one or more phytopathogenic fungi and wherein the active-ingredient composition consists of at least two different active-ingredient substances selected, firstly, from the group of stilbenes and, secondly, from the group of galloylated flavan-3-ols and/or from the group of proanthocyanidins, wherein the at least two different active-ingredient substances are rhaponticin + procyanidin or epigallocatechin + resveratrol or trihydroxystilbene glucoside + epigallocatechin and are mixed together in a weight ratio of from 1:1 to 1:8 and wherein the active-ingredient formulation consists of a ready-to-use solution, an emulsifiable concentrate, an emulsion, a suspension, a spray powder, a soluble powder and/or a granular material of a corresponding active-ingredient composition and optionally further excipients, more particularly adjuvants.
A composition comprising a xanthine oxidase inhibitor, and an organic base, and optionally a pharmaceutically acceptable carrier; wherein (i) the organic base is lysine or arginine or ornithine, (ii) the xanthine oxidase inhibitor is allopurinol or oxypurinol, (iii) the xanthine oxidase inhibitor and organic base are in powder form, and (iv) the xanthine oxidase inhibitor to organic base molar ratio is 1:0.01 to 1:100.
A compound according to formula wherein: R 1 is hydrogen or C 1-4 haloalkyl, or C 1-4 alkyl optionally substituted with one substituent selected from the group consisting of: hydroxy, cyano, C R a, C 3-5 cycloalkyl, optionally substituted phenyl, and optionally substituted 5-6 membered heteroaryl, wherein said phenyl and 5-6 member heteroaryl are each optionally substituted with one or two substituents each independently selected from the group consisting of: halo, hydroxy, C 1-3 alkyl, C 1-3 alkoxy, and cyano; R 2 is R 3 -C 1-2 alkylene-C -, R 3 -C 1-2 alkylene-S 2 -, or R 3 -C 1-2 alkylene-COO-; R 3 is optionally substituted phenyl, optionally substituted 6 membered heteroaryl, or optionally substituted indolyl, wherein said phenyl, heteroaryl and indolyl are each optionally substituted with one to three substitutents each independently selected from the group consisting of: halo, hydroxy, cyano, nitro, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C R a, COOR a, NR a R b, NHC R a, and C NR a R b; R a is H or C 1-6 alkyl; and R b is H or C 1-6 alkyl; or a pharmaceutically acceptable salt thereof. R 1 is hydrogen or C 1-4 haloalkyl, or C 1-4 alkyl optionally substituted with one substituent selected from the group consisting of: hydroxy, cyano, C R a, C 3-5 cycloalkyl, optionally substituted phenyl, and optionally substituted 5-6 membered heteroaryl, wherein said phenyl and 5-6 member heteroaryl are each optionally substituted with one or two substituents each independently selected from the group consisting of: halo, hydroxy, C 1-3 alkyl, C 1-3 alkoxy, and cyano; R 2 is R 3 -C 1-2 alkylene-C -, R 3 -C 1-2 alkylene-S 2 -, or R 3 -C 1-2 alkylene-COO-; R 3 is optionally substituted phenyl, optionally substituted 6 membered heteroaryl, or optionally substituted indolyl, wherein said phenyl, heteroaryl and indolyl are each optionally substituted with one to three substitutents each independently selected from the group consisting of: halo, hydroxy, cyano, nitro, C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C R a, COOR a, NR a R b, NHC R a, and C NR a R b; R a is H or C 1-6 alkyl; and R b is H or C 1-6 alkyl; or a pharmaceutically acceptable salt thereof.
A method for determining control information for controlling laser radiation irradiated onto the cornea of an eye to be treated photorefractively, in which method a corneal ablation profile which is obtained by measuring the optical properties of the eye to be treated is corrected by means of correction information, and the control information is formed on the basis of the ablation profile generated in this manner, characterised in that the ablation profile is transformed into a spatial frequency spectrum, in that a corrected amplitude value each is then determined for various discrete spectral components of the ablation profile on the basis of stored amplitude correction information, and in that the spatial frequency spectrum including the amplitude-corrected spectral components is subsequently re-transformed into the geometric spatial domain for determining the corrected ablation profile, wherein the amplitude correction information for several spatial frequencies (ω 1, ω 2), which differ at least in terms of frequency value, represent a relationship in each case (f(A s,ω1), f(A s,ω2)), which has been determined in advance between amplitude values at the relevant spatial frequency and corrected amplitude values at this spatial frequency.
Removable interrupting element for an electric current, comprising - a first housing part and a second housing part which are capable of being fitted together and are reversibly displaceable relative to one another between an assembled configuration and a partially disassembled configuration, - fixed electrical contacts which are secured to the first housing part, - movable electrical contacts which are displaceable relative to the fixed electrical contacts, the movable electrical contacts being housed in the second housing part and being displaceable relative to the second housing part, the first housing part having lateral walls provided with through inspection windows, the second housing part having insulating walls which each delimit a volume within the second housing part around a corresponding movable conductor, the first and second housing parts (20, 22) being so arranged relative to one another that, in the assembled configuration, the insulating walls conceal the inspection windows and, in the intermediate configuration, the insulating walls are moved away from the inspection windows in order to free access to the inspection windows. - a first housing part and a second housing part which are capable of being fitted together and are reversibly displaceable relative to one another between an assembled configuration and a partially disassembled configuration, - fixed electrical contacts which are secured to the first housing part, - movable electrical contacts which are displaceable relative to the fixed electrical contacts, the movable electrical contacts being housed in the second housing part and being displaceable relative to the second housing part,
Method of forecasting the electrical production of a photovoltaic device comprising photovoltaic modules, comprising a first part of estimating the lighting that will be received in the plane of the photovoltaic modules and a second part of estimating the electrical production of the photovoltaic device, characterized in that it comprises the following first step: - determination of whether a past considered period is sunny or cloudy, and characterized in that it comprises the following second step of implementing at least one of the following two steps: - correction of the second part of the method of forecasting the electrical production based on the measurement of the true electrical production of the photovoltaic modules over the past considered period if this past considered period is sunny; and/or - correction of the first part of the method of forecasting the electrical production based on the measurement of the true electrical production of the photovoltaic modules over the past considered period if this past considered period is cloudy. - determination of whether a past considered period is sunny or cloudy, and characterized in that it comprises the following second step of implementing at least one of the following two steps: - correction of the second part of the method of forecasting the electrical production based on the measurement of the true electrical production of the photovoltaic modules over the past considered period if this past considered period is sunny; and/or - correction of the first part of the method of forecasting the electrical production based on the measurement of the true electrical production of the photovoltaic modules over the past considered period if this past considered period is cloudy. - correction of the first part of the method of forecasting the electrical production based on the measurement of the true electrical production of the photovoltaic modules over the past considered period if this past considered period is cloudy.
A stator core with a reinforced coupling structure, the stator core comprising: a bent stator core body comprising a plurality of teeth protrusively formed at a predetermined interval in the same direction; a fixing unit(200, 300) provided in a complementary shape at both ends of the stator core body for fixing the stator core body in a cylindrical shape after bending; an insulator(410, 420) comprising a first insulator and a second insulator discretely formed, each of the first and second insulators(410, 420) being integrally formed in a mold to wrap the stator core body and the teeth simultaneously, characterized in that the stator core body has a plurality of hook units each having a complementary shape around a protrusion of the adjacent teeth to maintain a cylindrical shape in a bending process; and in that the first and the second insulators(410, 420) each comprises a bottleneck(411, 421) formed at a position corresponding to each hook unit, such that the bottle neck(411, 421) is fractured by bending the stator core body wrapped by the insulator(410, 420) in a cylindrical shape. a bent stator core body comprising a plurality of teeth protrusively formed at a predetermined interval in the same direction; a fixing unit(200, 300) provided in a complementary shape at both ends of the stator core body for fixing the stator core body in a cylindrical shape after bending; an insulator(410, 420) comprising a first insulator and a second insulator discretely formed, each of the first and second insulators(410, 420) being integrally formed in a mold to wrap the stator core body and the teeth simultaneously, characterized in that the stator core body has a plurality of hook units each having a complementary shape around a protrusion of the adjacent teeth to maintain a cylindrical shape in a bending process; and in that the first and the second insulators(410, 420) each comprises a bottleneck(411, 421) formed at a position corresponding to each hook unit, such that the bottle neck(411, 421) is fractured by bending the stator core body wrapped by the insulator(410, 420) in a cylindrical shape.
Circular saw blade having cutting teeth (1, 2, 3,...) arranged in groups (I, II) over its circumference, in the case of which each group (I, II) comprises at least three cutting teeth (1, 2, 3), of which, in cutting order, the first tooth, as seen in front view, is of symmetrical design and the second and third teeth (2, 3) are of alternately asymmetrical design, wherein a first spacing angle (τ 1) is set between the cutting edges (10, 20) of the first tooth and of the second tooth, a second spacing angle (τ 2) is set between the cutting edges (20, 30) of the second tooth and of the third tooth, and a third spacing angle (τ 3) is set between the cutting edge of the final tooth of a first group and the cutting edge of the first tooth of a following group, characterized in that the asymmetrical teeth (2, 3) are combined to form a first tooth pair, in that the second spacing angle (τ 2) is smaller than the first spacing angle (τ 1), and in that the second spacing angle (τ 2) is smaller than the third spacing angle (τ 3).
Method for controlling the torque output by a motor vehicle internal combustion engine which has an asymmetric Atkinson or Miller cycle and is equipped with a variable intake valve timing system, in the event of malfunction of the variable timing system, characterized in that it comprises the steps of: a) determination of an intake closure delay value corresponding to a blockage of the variable timing system, said determination being performed on the basis of a measured or stored position of the intake closure delay; b) calculation of a ratio between the volume occupied at atmospheric pressure by the air admitted into the combustion chamber, at the moment the intake valves close, and the residual volume of the combustion chamber at top dead center; c) calculation of a maximum permissible air quantity for a pressure in the intake manifold equal to atmospheric pressure and to the temperature of the intake manifold, based on a limitation of the calculated ratio; d) calculation of the maximum pressure in the intake manifold based on the instantaneous temperature of the intake manifold and a maximum achievable torque, from the maximum permissible air quantity; e) adjustment of the pressure in the intake manifold to a value equal to the calculated maximum pressure and corresponding to the maximum torque achievable. a) determination of an intake closure delay value corresponding to a blockage of the variable timing system, said determination being performed on the basis of a measured or stored position of the intake closure delay; b) calculation of a ratio between the volume occupied at atmospheric pressure by the air admitted into the combustion chamber, at the moment the intake valves close, and the residual volume of the combustion chamber at top dead center; c) calculation of a maximum permissible air quantity for a pressure in the intake manifold equal to atmospheric pressure and to the temperature of the intake manifold, based on a limitation of the calculated ratio; d) calculation of the maximum pressure in the intake manifold based on the instantaneous temperature of the intake manifold and a maximum achievable torque, from the maximum permissible air quantity; e) adjustment of the pressure in the intake manifold to a value equal to the calculated maximum pressure and corresponding to the maximum torque achievable.
A coating for metal components, especially a piston coating for use in internal combustion engines, comprising an inner layer which is applied to the metal component, an intermediate layer and a top layer, wherein the inner layer comprises at least one layer, selected from: a metal layer, a metal carbide layer, a metal nitride layer, a metal carbonitride layer and a metal-containing hydrocarbon layer; the intermediate layer comprises at least one layer made of amorphous carbon and the top layer comprises a W-C:H layer or an a-C:H* layer, wherein the a-C:H* layer is a graded layer made of amorphous carbon which is composed of diamond-like portions and graphite-like portions, wherein the proportion of graphite-like portions is higher than in an a-C:H layer, and wherein a maximum layer thickness (d) of the coating is at most 5 μm, characterised in that i) the inner layer has a Cr layer, a Cr/WC layer and a W-C:H layer and the Cr layer is provided for application to the metal component, or in that the inner layer has a CrN layer, a Cr/WC layer and a W-C:H layer, and the CrN layer is provided for application to the metal component, or in that the inner layer has a Cr layer, a CrN layer and a Cr/WC layer and the Cr layer is provided for application to the metal component, or ii) the inner layer is formed by a Cr layer, a Cr/WC layer and a WC/W-C:H layer in this sequence, wherein the Cr layer is provided for application to the metal component, the intermediate layer comprises an a-C:H layer directed at the inner layer and an a-C:H* layer directed at the top layer, and the top layer is a W-C:H layer. i) the inner layer has a Cr layer, a Cr/WC layer and a W-C:H layer and the Cr layer is provided for application to the metal component, or in that the inner layer has a CrN layer, a Cr/WC layer and a W-C:H layer, and the CrN layer is provided for application to the metal component, or in that the inner layer has a Cr layer, a CrN layer and a Cr/WC layer and the Cr layer is provided for application to the metal component, or ii) the inner layer is formed by a Cr layer, a Cr/WC layer and a WC/W-C:H layer in this sequence, wherein the Cr layer is provided for application to the metal component, the intermediate layer comprises an a-C:H layer directed at the inner layer and an a-C:H* layer directed at the top layer, and the top layer is a W-C:H layer.
A drive mechanism for a drug delivery device, comprising: a body having a proximal end and a distal end, a dose member having a thread, a drive sleeve arranged within the body, the drive sleeve having a thread engaging the thread of the dose member, characterized in that the drive sleeve is rotatable with respect to the body, stop means (13, 14) are provided to restrict or inhibit a movement of the drive sleeve in the proximal direction and in the distal direction with respect to the body, and a clutch is provided to lock the dose member rotationally to the body in a releasable manner when a force is exerted on the dose member in the distal direction, the clutch permitting a movement of the dose member in the distal direction with respect to the body. a body having a proximal end and a distal end, a dose member having a thread, a drive sleeve arranged within the body, the drive sleeve having a thread engaging the thread of the dose member, characterized in that the drive sleeve is rotatable with respect to the body, stop means (13, 14) are provided to restrict or inhibit a movement of the drive sleeve in the proximal direction and in the distal direction with respect to the body, and a clutch is provided to lock the dose member rotationally to the body in a releasable manner when a force is exerted on the dose member in the distal direction, the clutch permitting a movement of the dose member in the distal direction with respect to the body.
A wheel clamp comprising a clamp body and a first arm, a second arm and a third arm, each of the arms having a radial portion (52, 62) and an axial portion (54, 64), at least one of the arms having a return radial portion (56, 66), the arms being securable at predetermined positions relative to the clamp body, characterised in that, the second and third arms each being releasably mounted to the clamp body by way of at least one mushroom-headed pin locatable in a keyhole aperture.
A system for installing and removing a propulsion unit on a mast of an aircraft, which propulsion unit being of the type comprising a nacelle and a turbojet engine, the nacelle extending longitudinally from fore to aft along a longitudinal axis, the turbojet engine being linked onto the mast via at least one front suspension and one rear suspension, said system including: - a support structure which is adapted to carry a thrust reverser device and which extends longitudinally, - a front suspension of the turbojet engine, which carries a front portion of the support structure, and which is removably fastened onto a front portion of the mast, and characterized in that it includes: - a rear suspension of the turbojet engine, which carries a rear portion of the support structure, and which is removably fastened onto a rear portion of the mast, and the detachment of said suspensions (24, 26) from the mast enabling the removal of the propulsion unit mounted on the mast. - a support structure which is adapted to carry a thrust reverser device and which extends longitudinally, - a front suspension of the turbojet engine, which carries a front portion of the support structure, and which is removably fastened onto a front portion of the mast, - a rear suspension of the turbojet engine, which carries a rear portion of the support structure, and which is removably fastened onto a rear portion of the mast, and