mhurhangee/ep-ind-claims huggingface dataset:
Lighting system for the interior of a vehicle, comprising a housing having a mounting side and an opposite lighting side, - a plurality of LED lamps (8,9), - a support layer arranged on the mounting side, wherein the plurality of LED lamps (8,9) are arranged in a grid-like matrix structure on the support layer, wherein control elements and energy supply elements for signal-control of and electrical supply to the LED lamps (8,9) are arranged on the support layer, wherein a translucent diffuser layer is arranged so as to be spaced apart from the support layer, which has the LED lamps (8,9), and forms a light surface of the lighting side, wherein - in the grid-like matrix structure of the LED lamps (8,9), the distance between adjacent LED lamps (8,9) in a first X-direction is exactly as large as in a second Y-direction perpendicular to the X-direction, wherein - the distance between two adjacent LED lamps (8,9) is 0.7 cm to 6 cm, characterized in that - the density of the LED lamps (8,9) on the support panel is 250 to 21000 LEDs/m 2, wherein - the translucent diffuser layer is arranged at a distance of 1 cm to 10 cm from the LED support layer, wherein - the thickness of the diffuser layer is 1 mm to 10 mm. - a plurality of LED lamps (8,9), - a support layer arranged on the mounting side, wherein the plurality of LED lamps (8,9) are arranged in a grid-like matrix structure on the support layer, wherein control elements and energy supply elements for signal-control of and electrical supply to the LED lamps (8,9) are arranged on the support layer, wherein a translucent diffuser layer is arranged so as to be spaced apart from the support layer, which has the LED lamps (8,9), and forms a light surface of the lighting side, wherein wherein the plurality of LED lamps (8,9) are arranged in a grid-like matrix structure on the support layer, wherein control elements and energy supply elements for signal-control of and electrical supply to the LED lamps (8,9) are arranged on the support layer, wherein a translucent diffuser layer is arranged so as to be spaced apart from the support layer, which has the LED lamps (8,9), and forms a light surface of the lighting side, wherein - in the grid-like matrix structure of the LED lamps (8,9), the distance between adjacent LED lamps (8,9) in a first X-direction is exactly as large as in a second Y-direction perpendicular to the X-direction, wherein - the distance between two adjacent LED lamps (8,9) is 0.7 cm to 6 cm, characterized in that - the density of the LED lamps (8,9) on the support panel is 250 to 21000 LEDs/m 2, wherein - the translucent diffuser layer is arranged at a distance of 1 cm to 10 cm from the LED support layer, wherein - the thickness of the diffuser layer is 1 mm to 10 mm.
A wave power unit having at least one floating body, a submerged station and at least one flexible connection means (3, 31) connecting the at least one floating body with the submerged station, the submerged station including a generator with a stator (5, 51) and a moving part (6, 61), characterized in that the flexible connection means (3, 31) is provided with at least one damper arranged to absorb tensile forces in the flexible connection means whereby the damper is provided at the flexible connection means connecting the at least one floating body with the moving part (6, 61) of the generator.
Coal dust burner, which comprises a fuel pipe, which transports a carbon-containing fuel in the form of particles into the mouth region of the coal dust burner and is surrounded by enclosing air, with a fuel nozzle, which is formed in the mouth region and comprises a stabilizing ring with a toothed rim, which is arranged at the end of the fuel pipe at the mouth and forms the mouth end thereof, and which has a central pipe or core-air pipe carrying oxygen-containing gas and/or recirculated flue gas, arranged concentrically within the fuel pipe and at the centre of the coal dust burner, characterized in that the coal dust burner comprises at least one ignition and/or heat source which is arranged in the burner interior in the mouth region of the fuel nozzle and is formed as or comprises an electrical heating and/or ignition device, which ignition and/or heat source is a constituent part of the stabilizing ring with a toothed rim, and which generates and/or provides the amount of thermal energy required within the coal dust burner for the origination and execution of the initial pyrolysis and ignition in the burner interior, in particular in the region of the fuel ignition site forming, exclusively by conversion of electric current into thermal energy.
A universal graphics adaptor, in the following referred to as UGA, system comprising: a UGA virtual machine that interfaces with UGA hardware; and a UGA hardware abstraction layer, in the following referred to as UGA HAL, that receives information relating to the UGA hardware via the UGA virtual machine, the UGA HAL abstracting details of the UGA hardware into an interface; characterised in that the UGA HAL facilitates a common interface to UGA and non-UGA display devices. a UGA virtual machine that interfaces with UGA hardware; and a UGA hardware abstraction layer, in the following referred to as UGA HAL, that receives information relating to the UGA hardware via the UGA virtual machine, the UGA HAL abstracting details of the UGA hardware into an interface; characterised in that the UGA HAL facilitates a common interface to UGA and non-UGA display devices.
A composition comprising at least a first and a second multifunctional precursor molecule, wherein (i) the first precursor molecule is a poly (ethylene glycol) based polymer having at least two nucleophilic groups selected from thiols and amines, (ii) the second precursor molecule contains at least two electrophilic groups, wherein the nucleophilic and electrophilic groups of the first and second precursor molecules are capable of forming covalent linkages with each other under physiological conditions, the composition further comprising a colorant selected from the group consisting of lissamine green and fast green. (i) the first precursor molecule is a poly (ethylene glycol) based polymer having at least two nucleophilic groups selected from thiols and amines, (ii) the second precursor molecule contains at least two electrophilic groups, wherein the nucleophilic and electrophilic groups of the first and second precursor molecules are capable of forming covalent linkages with each other under physiological conditions,
A method for providing communication among applications, comprising: acquiring user account information for a first application; and after the first application is accessed via the user account information, sending the user account information together with associated permissions information from the first application, via a system broadcast, to a second application; confirming whether the second application has intercommunication permissions with the first application based upon the permissions information, the intercommunications permissions indicating whether the second application can acquire the user account information from the system broadcast; at the second application, either: acquiring and storing the user account information, in a private storage space of the second application for login to the second application, on confirmation that the second application has intercommunication permissions with the first application; or discarding the system broadcast and continuing to monitor the system broadcast, if the second application does not have intercommunication permissions with the first application; and using the user account information stored in the private storage space of the second application to log in to the second application. acquiring user account information for a first application; and after the first application is accessed via the user account information, sending the user account information together with associated permissions information from the first application, via a system broadcast, to a second application; confirming whether the second application has intercommunication permissions with the first application based upon the permissions information, the intercommunications permissions indicating whether the second application can acquire the user account information from the system broadcast; at the second application, either: acquiring and storing the user account information, in a private storage space of the second application for login to the second application, on confirmation that the second application has intercommunication permissions with the first application; or discarding the system broadcast and continuing to monitor the system broadcast, if the second application does not have intercommunication permissions with the first application; and acquiring and storing the user account information, in a private storage space of the second application for login to the second application, on confirmation that the second application has intercommunication permissions with the first application; or discarding the system broadcast and continuing to monitor the system broadcast, if the second application does not have intercommunication permissions with the first application; and using the user account information stored in the private storage space of the second application to log in to the second application.
A method for determining the operability of a fluid driven safety valve with a valve member and a spring return, 1.1 wherein the valve member is to be moved to a safety position by the spring return in case of a complete pressure drop of the driving fluid; 1.2 wherein the safety valve has means for determining the pressure of the driving fluid; 1.2.1 wherein the pressure of the driving fluid acts against the spring; 1.3 wherein the safety valve has means for determining the position of the valve member; wherein the method comprises the following steps: 1.4 a partial stroke test is performed on the safety valve by varying the pressure in the driving fluid; 1.5 the position of the valve member in dependence of the pressure in the driving fluid is recorded during the partial stroke test, whereby a stroke-pressure curve is obtained; characterized by the following steps: 1.6 the stroke-pressure curve is mathematically modeled beyond the measured range; 1.7 the mathematically determined stroke-pressure curve is extrapolated up to the safety position of the valve member (340, 350); 1.8 the pressure (320; 420; 520) corresponding to this safety position in the mathematically determined stroke-pressure curve is determined. 1.1 wherein the valve member is to be moved to a safety position by the spring return in case of a complete pressure drop of the driving fluid; 1.2 wherein the safety valve has means for determining the pressure of the driving fluid; 1.2.1 wherein the pressure of the driving fluid acts against the spring; 1.3 wherein the safety valve has means for determining the position of the valve member; wherein the method comprises the following steps: 1.4 a partial stroke test is performed on the safety valve by varying the pressure in the driving fluid; 1.5 the position of the valve member in dependence of the pressure in the driving fluid is recorded during the partial stroke test, whereby a stroke-pressure curve is obtained; 1.6 the stroke-pressure curve is mathematically modeled beyond the measured range; 1.7 the mathematically determined stroke-pressure curve is extrapolated up to the safety position of the valve member (340, 350); 1.8 the pressure (320; 420; 520) corresponding to this safety position in the mathematically determined stroke-pressure curve is determined.
A polymeric layer, comprising: (a) a polymer matrix, wherein the polymer is selected from the group consisting of silicone, a silicone derivative and combinations thereof; and (b) semiconductor nanocrystals embedded within said polymer matrix, characterized in that said nanocrystals have miscibility-enhancing ligands having a head-body-tail design in which the head group is bound to the surface of said nanocrystals, and wherein the head group is selected from phosphonic acid, amine, carboxylic acid and thiol groups, the body unit is selected from an alkane chain of 4 carbons or between 6 and 18 carbons in length and the tail group is a silicone group. (a) a polymer matrix, wherein the polymer is selected from the group consisting of silicone, a silicone derivative and combinations thereof; and (b) semiconductor nanocrystals embedded within said polymer matrix, characterized in that said nanocrystals have miscibility-enhancing ligands having a head-body-tail design in which the head group is bound to the surface of said nanocrystals, and wherein the head group is selected from phosphonic acid, amine, carboxylic acid and thiol groups, the body unit is selected from an alkane chain of 4 carbons or between 6 and 18 carbons in length and the tail group is a silicone group.
A method for manufacturing seamless steel pipes in which a billet consisting of, by mass percent, C: 0.15 to 0.30%, Si: 0.05 to 0.5%, Mn: 0.1 to 1.5%, Cr: 0.2 to 1.5%, Mo: 0.1 to 1.5%, Ti: 0.005 to 0.50%, Nb: 0.005 to 0.4%, Al: 0.001 to 0.50% and B: 0.0001 to 0.01%, optionally at least one of the element selected from V: 0.5% or less, Ca: 0.005% or less, Mg: 0.005% or less and REM: 0.005% or less, the balance being Fe and impurities, the impurities having a composition of 0.1% or less of Ni, 0.04% or less of P, 0.01% or less of S, 0.01% or less of N, and 0.01% or less of O, is hot pierced and hot rolled, and further a heat treatment is performed, wherein a hot rolled steel pipe is direct quenched from a temperature of not lower than the Ar 3 transformation point; or a hot rolled steel pipe is held at a temperature of not lower the Ar 3 transformation point and not higher than 1000°C and is inline quenched from a temperature of not lower than the Ar 3 transformation point; subsequently, in heat treatment equipment connected to a quenching apparatus for performing the direct quenching, the steel pipe is subjected to the hardness HRC 42 or lower by a heat treatment at temperature T (°C) and time period t (hr), satisfying that a PL value defined by the following formula is in the range of 14,000 to 18,600 and satisfying the following formula, and further the steel pipe subjected to the heat treatment is reheated, quenched from a temperature of not lower than the Ac 3 transformation point, and tempered at a temperature of not higher than the Ac 1 transformation point: PL = T + 273 × 19.78 + log t 450 ° C ≤ T ≤ Ac 1 transformation point wherein T is heat treatment temperature (°C), t is heat treatment time period (hr), and log is common logarithm.
A method of preparing a canister having a cavity loaded with wet radioactive elements for dry storage, the method comprising: a) placing wet radioactive spent nuclear fuel elements into a cavity of a canister through an open top of the canister; b) placing a lid on the open top of the canister to close the canister; c) providing a gas circulation system comprising a condensing module, a desiccant module, and a gas circulator module; d) connecting the gas circulation system to the canister so as to form a hermetically sealed closed-loop path that includes the cavity; e) filling the hermetically sealed closed-loop path with an inert non-reactive gas from a reservoir containing pressurized inert non-reactive gas; f) circulating the non-reactive gas through the hermetically sealed closed-loop path until the condensing module is no longer removing substantial amounts of water from the circulating non-reactive gas, wherein the desiccant module is sealed off from the hermetically sealed closed-loop path during step f); and g) adding the desiccant module to the hermetically sealed closed-loop path and continuing to circulate the non-reactive gas through the hermetically sealed closed-loop path, the desiccant module dehumidifying the circulating non-reactive gas; h) disconnecting the gas circulation system from the canister and sealing the canister for storage. a) placing wet radioactive spent nuclear fuel elements into a cavity of a canister through an open top of the canister; b) placing a lid on the open top of the canister to close the canister; c) providing a gas circulation system comprising a condensing module, a desiccant module, and a gas circulator module; d) connecting the gas circulation system to the canister so as to form a hermetically sealed closed-loop path that includes the cavity; e) filling the hermetically sealed closed-loop path with an inert non-reactive gas from a reservoir containing pressurized inert non-reactive gas; f) circulating the non-reactive gas through the hermetically sealed closed-loop path until the condensing module is no longer removing substantial amounts of water from the circulating non-reactive gas, wherein the desiccant module is sealed off from the hermetically sealed closed-loop path during step f); and g) adding the desiccant module to the hermetically sealed closed-loop path and continuing to circulate the non-reactive gas through the hermetically sealed closed-loop path, the desiccant module dehumidifying the circulating non-reactive gas; h) disconnecting the gas circulation system from the canister and sealing the canister for storage.
A moving center estimation method for boat which estimates a moving center of a boat equipped with a plurality of outboard motors (3a, 3b) on a stern side of a hull, the moving center estimation method comprising the following steps: provisional moving center setting of setting a provisitonal moving center (g 1, g 2) at a predetermined position in a neighborhood of an actual moving center of the boat; sample thrust application of applying a sample thrust having a predetermined magnitude and direction to the provisional moving center (g 1, g 2) by driving the outboard motor (3a, 3b); angular acceleration detection of detecting a magnitude and direction of an angular acceleration (αω) generated in the boat by application of the sample thrust; angular acceleration comparison of comparing the magnitude of the angular acceleration (αω) with a predetermined threshold value αω th); and provisional moving center changing and setting of changing and setting a position of the provisional moving center (g 2, g 3) so that the angular acceleration (αω) may converge in the said predetermined threshold value (αω th), when the angular acceleration (αω) is larger than the said predetermined threshold value (αω th), wherein the position to be changed of the provisional moving center (g 1, g 2) is calculated by using dichotomy so as to shorten a distance (r) between the actual moving center and the provisional moving center (g), in the said step of provisional moving center changing and setting. provisional moving center setting of setting a provisitonal moving center (g 1, g 2) at a predetermined position in a neighborhood of an actual moving center of the boat; sample thrust application of applying a sample thrust having a predetermined magnitude and direction to the provisional moving center (g 1, g 2) by driving the outboard motor (3a, 3b); angular acceleration detection of detecting a magnitude and direction of an angular acceleration (αω) generated in the boat by application of the sample thrust; angular acceleration comparison of comparing the magnitude of the angular acceleration (αω) with a predetermined threshold value αω th); and provisional moving center changing and setting of changing and setting a position of the provisional moving center (g 2, g 3) so that the angular acceleration (αω) may converge in the said predetermined threshold value (αω th), when the angular acceleration (αω) is larger than the said predetermined threshold value (αω th), wherein the position to be changed of the provisional moving center (g 1, g 2) is calculated by using dichotomy so as to shorten a distance (r) between the actual moving center and the provisional moving center (g), in the said step of provisional moving center changing and setting.
A catheter system comprising: i) a steering means; and ii) a delivery means for a heart valve, optionally balloon expandable or self-expandable, wherein the steering means and the delivery means are coaxially and rotationally independently movable; and wherein the delivery means and steering means are releasably connectable. i) a steering means; and ii) a delivery means for a heart valve, optionally balloon expandable or self-expandable,
Method to run a software application accessible from a communication terminal using at least one real object (O1, O2, O3, O4, O5, O6), comprising • A step of describing a curve in space from said communication terminal • A step of identifying a geographic zone based on said curve, • A step of determining a set of active real objects located within said geographic zone having a communication interface with a communication network • A step of identifying an application from among said active real objects, by querying a second database associating the applications available with required conditions, and by the determination of a set of applications for which the associated required conditions correspond to the abilities offered by the real objects in said set, • A step of interfacing said application with said active real objects. • A step of describing a curve in space from said communication terminal • A step of identifying a geographic zone based on said curve, • A step of determining a set of active real objects located within said geographic zone having a communication interface with a communication network • A step of identifying an application from among said active real objects, by querying a second database associating the applications available with required conditions, and by the determination of a set of applications for which the associated required conditions correspond to the abilities offered by the real objects in said set, • A step of interfacing said application with said active real objects.
Wall connection arrangement for a roof covering device, in particular for a terrace roof covering, comprising: a wall connection profile, which has an integral functional portion having a receiving groove of a predetermined open width; a groove block, which is formed to be fixable in the receiving groove and has a width less than the predetermined open width of the receiving groove, in such a way that when the groove block is fixed in the receiving groove a residual width of the receiving groove is left; and a wall compensation profile, which is provided to be arranged on the wall connection profile and which has a head portion having an extension, which is formed to be introducible into the residual width of the receiving groove, left after the groove block is fixed, in order to mount the wall compensation profile on the wall connection profile in the region of the groove block. a wall connection profile, which has an integral functional portion having a receiving groove of a predetermined open width; a groove block, which is formed to be fixable in the receiving groove and has a width less than the predetermined open width of the receiving groove, in such a way that when the groove block is fixed in the receiving groove a residual width of the receiving groove is left; and a wall compensation profile, which is provided to be arranged on the wall connection profile and which has a head portion having an extension, which is formed to be introducible into the residual width of the receiving groove, left after the groove block is fixed, in order to mount the wall compensation profile on the wall connection profile in the region of the groove block.