mhurhangee/ep-ind-claims huggingface dataset:
A method for implementation by one or more data processors forming part of at least one computing device to connect to at least one of a plurality of data sources comprising: initiating deployment of a computing environment comprising at least one integration scenario and at least one adapter providing an interface to the at least one of the plurality of data sources, which is a backend computing system, wherein the integration scenario enables the definition of message exchange and process flows for computer-implemented collaborative processes executing across multiple computing nodes which utilize the plurality of data sources having different data access or transport protocols or formats; preventing, by a runtime component, activation of the at least one integration scenario until such time that the at least one adapter is fully deployed, the preventing including: listening, by a deploy listener forming part of the runtime component, to events of an integration service forming part of the deployment to determine a state of deployment of the at least one adapter; and subsequently enabling integration flows within the at least one integration scenario to utilize the at least one adapter; wherein the determined state of deployment is used to determine when the at least one adapter is fully deployed. initiating deployment of a computing environment comprising at least one integration scenario and at least one adapter providing an interface to the at least one of the plurality of data sources, which is a backend computing system, wherein the integration scenario enables the definition of message exchange and process flows for computer-implemented collaborative processes executing across multiple computing nodes which utilize the plurality of data sources having different data access or transport protocols or formats; preventing, by a runtime component, activation of the at least one integration scenario until such time that the at least one adapter is fully deployed, the preventing including: listening, by a deploy listener forming part of the runtime component, to events of an integration service forming part of the deployment to determine a state of deployment of the at least one adapter; and subsequently enabling integration flows within the at least one integration scenario to utilize the at least one adapter; wherein the determined state of deployment is used to determine when the at least one adapter is fully deployed.
Seat bench for a vehicle, which comprises three seats (2L, 2M, 2R; 3L, 3M, 3R) which are arranged next to one another and are connected to one another, wherein one of the three seats (2L, 2M, 2R; 3L, 3M, 3R) acts as a base seat (2M, 3M), while the other seats (2L, 2R; 3L 3R) float above a vehicle floor of a vehicle body since the other seats (2L, 2R; 3L, 3R) are reversibly connected (72-1M, 73-1M, A; G, R, M) exclusively to the base seat (2M, 3M), wherein the seat bench can be arranged on a vehicle floor of a vehicle body of the vehicle, wherein, in order to connect the seat bench with up to three seats in a row of seats, a maximum of four body-side connection points are provided, characterized in that a reversible connection of the seat bench to the vehicle floor is provided via the connection points together with locking units (52M, 53M) of the base seat (2M, 3M) of the seat bench, and in that, in order to form a two-seater seat bench, one of the other seats (2L, 2R; 3L, 3R) is arranged next to the base seat (2M, 3M), and in order to form a three-seater seat bench, the two other seats (2L, 2R; 3L, 3R) are arranged next to the base seat (2M, 3M), and are connected thereto in a floating manner.
An apparatus for denitration and desulfurization of and dust removal from an FCC tail gas by an ammonia-based process, comprising a first-stage waste heat recovery system, a denitration system, a dust removal and desulfurization system, a tail gas exhaust system, and an ammonium sulfate post-processing system, wherein the dust removal and desulfurization system comprises a dedusting tower and an absorption tower disposed separately, wherein top and bottom of the absorption tower are connected respectively to the tail gas exhaust system and the ammonium sulfate post-processing system; the dedusting tower is provided with at least 2 layers of washing liquid sprayers, and at least one layer of demisters are provided above the washing liquid sprayers in the dedusting tower; and the absorption tower comprises sequentially, from bottom to top, an oxidation section, an absorption section, and a fine particulate control section, wherein the absorption section is provided with at least 2 layers of sprayers in the absorption section, and the fine particulate control section is provided with 1 to 4 cyclically washing layers with dilute ammonium sulfate solution, wherein the first-stage waste heat recovery system, the denitration system, the dedusting tower and the absorption tower are connected in sequence.
A method for manufacturing road surface covering elements that can be mounted on rollers of roll dynamometers, comprising - producing manufacturing data for generating a digital image of a strip-shaped section with height values according to the surface contour of a detected road surface, wherein the detected strip-shaped section has a predetermined length in the longitudinal direction and has a predetermined width in the transverse direction and said strip-shaped section is delimited in the longitudinal direction by a respective longitudinal edge (2a, 2b), and - manufacturing said road surface covering element according to said digital image by means of a three-dimensional manufacturing technique, wherein said three-dimensional manufacturing technique is a 3D printing method and/or a 3D milling method, characterized in that an adaptation of the height values of the two longitudinal edges (2a, 2b) to each other is performed such that the height values of both longitudinal edges (2 a, 2b) in the same position in the transverse direction differ by less than a predetermined deviation value after the adaptation. - producing manufacturing data for generating a digital image of a strip-shaped section with height values according to the surface contour of a detected road surface, wherein the detected strip-shaped section has a predetermined length in the longitudinal direction and has a predetermined width in the transverse direction and said strip-shaped section is delimited in the longitudinal direction by a respective longitudinal edge (2a, 2b), and - manufacturing said road surface covering element according to said digital image by means of a three-dimensional manufacturing technique, wherein said three-dimensional manufacturing technique is a 3D printing method and/or a 3D milling method,
A wavelength converted light emitting device comprising: a flip chip semiconductor light emitting device; a wavelength converting structure disposed over the flip chip semiconductor light emitting device; and a substrate, wherein: the wavelength converting structure is disposed between the substrate and the flip chip semiconductor light emitting device; and a bottom surface (35, 56) of the substrate is in connection with the wavelength converting structure, comprising a gap (38, 58), wherein: the gap (38, 58) is located between the wavelength converting structure and a portion of the bottom surface (35, 56) of the substrate; and a top surface of the substrate is textured, wherein the bottom surface (35, 56) comprises a plurality of pillars such that the gap (38, 58) is disposed between the pillars. a flip chip semiconductor light emitting device; a wavelength converting structure disposed over the flip chip semiconductor light emitting device; and a substrate, wherein: the wavelength converting structure is disposed between the substrate and the flip chip semiconductor light emitting device; and a bottom surface (35, 56) of the substrate is in connection with the wavelength converting structure, comprising a gap (38, 58), wherein: the gap (38, 58) is located between the wavelength converting structure and a portion of the bottom surface (35, 56) of the substrate; and a top surface of the substrate is textured, wherein the bottom surface (35, 56) comprises a plurality of pillars such that the gap (38, 58) is disposed between the pillars.
An X-ray spectrometric detection device for spectrally resolving characteristic X-rays included in a soft X-ray region emitted from a micro analysis spot having a diameter of 100 μm or less on a sample surface irradiated with X-rays or an electron beam and detecting the resolved characteristic X-rays by wavelength, the device comprising: a dispersive crystal having a flat diffractive reflection surface for receiving the characteristic X-rays emitted from the micro analysis spot, and being adapted to diffract and reflect a wavelength component corresponding to an incident angle to the diffractive reflection surface in wavelength components included in the characteristic X-rays, so as to spectrally resolve the characteristic X-rays by wavelength; a two-dimensional X-ray detector having a light-receiving surface for receiving the characteristic X-rays diffracted and reflected by the dispersive crystal, and being adapted to generate data concerning an incident position and intensity of the characteristic X-rays incident on the light-receiving surface; and characterized by a shield member, arrangeable between the micro analysis spot and the light-receiving surface of the two-dimensional X-ray detector, such that it blocks the characteristic X-rays from reaching the light-receiving surface directly from the micro analysis spot. a dispersive crystal having a flat diffractive reflection surface for receiving the characteristic X-rays emitted from the micro analysis spot, and being adapted to diffract and reflect a wavelength component corresponding to an incident angle to the diffractive reflection surface in wavelength components included in the characteristic X-rays, so as to spectrally resolve the characteristic X-rays by wavelength; a two-dimensional X-ray detector having a light-receiving surface for receiving the characteristic X-rays diffracted and reflected by the dispersive crystal, and being adapted to generate data concerning an incident position and intensity of the characteristic X-rays incident on the light-receiving surface; and characterized by
A device for obtaining a skin graft, the device comprising: a cutting body that is disposable on a patient's skin; a head adapted for coupling to the cutting body, the head further comprising a sealing surface to engage with a mating surface on the cutting body such that, when the head is engaged with the body on a patient's skin, a sealed chamber is formed over a target region of skin; and a negative pressure conduit also connected to the chamber and adapted for applying negative pressure within the chamber to raise at least one skin blister within the chamber; and a cutter mechanism within the body for cleaving the at least one skin blister after formation, characterised by a sensor for monitoring the formation of the blister wherein the sensor comprises at least one emitter-receiver pair (12, 14) within the device such that the emitter is configured to emit a signal and the receiver is configured to receive the signal with the receiver, and wherein a disruption in the signal reception indicates the presence of a skin blister. a cutting body that is disposable on a patient's skin; a head adapted for coupling to the cutting body, the head further comprising a sealing surface to engage with a mating surface on the cutting body such that, when the head is engaged with the body on a patient's skin, a sealed chamber is formed over a target region of skin; and a negative pressure conduit also connected to the chamber and adapted for applying negative pressure within the chamber to raise at least one skin blister within the chamber; and a cutter mechanism within the body for cleaving the at least one skin blister after formation,
A method for digital printing on a three-dimensional substrate described by a 3D model, comprising the following steps: producing print data including a half-tone grid pattern of dots; positioning a first ink jet nozzle over a region of a substrate that is of at least a first distance from the nozzle, wherein the first distance is approximately 1 cm; and propelling a first ink drop of at least a first size, from the first nozzle, to the surface of the substrate along a predictable trajectory, wherein the first size is approximately 80 pL; the method further comprising: adjusting the half-tone grid pattern of dots in a selected region, from a first dot distribution to a second dot distribution, to correct for, at least in part, a variation in ink lay-down density due to a corresponding sloped area of the substrate as described by the 3D model, wherein the first and second dot distributions are defined in rows and columns of the half-tone grid pattern; and propelling a plurality of droplets, corresponding to the adjusted halftone grid pattern of dots in the selected region, to the substrate in a manner similar to that of the first ink drop. producing print data including a half-tone grid pattern of dots; positioning a first ink jet nozzle over a region of a substrate that is of at least a first distance from the nozzle, wherein the first distance is approximately 1 cm; and propelling a first ink drop of at least a first size, from the first nozzle, to the surface of the substrate along a predictable trajectory, wherein the first size is approximately 80 pL; the method further comprising: adjusting the half-tone grid pattern of dots in a selected region, from a first dot distribution to a second dot distribution, to correct for, at least in part, a variation in ink lay-down density due to a corresponding sloped area of the substrate as described by the 3D model, wherein the first and second dot distributions are defined in rows and columns of the half-tone grid pattern; and propelling a plurality of droplets, corresponding to the adjusted halftone grid pattern of dots in the selected region, to the substrate in a manner similar to that of the first ink drop. adjusting the half-tone grid pattern of dots in a selected region, from a first dot distribution to a second dot distribution, to correct for, at least in part, a variation in ink lay-down density due to a corresponding sloped area of the substrate as described by the 3D model, wherein the first and second dot distributions are defined in rows and columns of the half-tone grid pattern; and propelling a plurality of droplets, corresponding to the adjusted halftone grid pattern of dots in the selected region, to the substrate in a manner similar to that of the first ink drop.
A button assembly for activating a drain device of a flushing tank, comprising a casing that houses a mobile slider cooperating in use with a member of the drain device, and at least an operating button connected to the slider, the button assembly being characterized in that the slider is internally provided with a through conduit having an inlet opening closed by a closing element that is set through the button and is movable between a closed position, in which the opening is closed by the closing element, and an open position, in which the opening is open.
A process for preparing a micronutrient-enriched phosphate-based fertiliser comprising steps of: (a) preparing an aqueous fertiliser mixture comprising phosphoric acid and/or phosphate rock; and (b) optionally granulating the fertiliser mixture in a granulator unit; wherein the pH of the fertiliser mixture is measured and controlled in step (a) or in step (b) such that the pH is maintained within a predefined range of from 3.5 to 4; and wherein a source of micronutrient is added in step (a) or step (b), wherein the micronutrient is zinc. (a) preparing an aqueous fertiliser mixture comprising phosphoric acid and/or phosphate rock; and (b) optionally granulating the fertiliser mixture in a granulator unit;
A process for forming substantially dust-free additive granules, comprising the steps of: a. extruding or otherwise processing an additive or blend of additives to provide a substrate; b. cooling the substrate; c. conveying the substrate onto a profiled surface; and d. fragmenting the substrate into granules by means of a first rotating roller bearing on the substrate on the profiled surface, wherein the process excludes an impressing step, wherein the first rotating roller has a profiled outer surface, wherein the profiled surface is provided by an outer surface of a second rotating roller, wherein the profiled outer surface of the first rotating roller and the profiled surface comprise teeth, and wherein the teeth on the outer surface of the first rotating roller engage in a complementary manner with the teeth on the profiled surface. a. extruding or otherwise processing an additive or blend of additives to provide a substrate; b. cooling the substrate; c. conveying the substrate onto a profiled surface; and d. fragmenting the substrate into granules by means of a first rotating roller bearing on the substrate on the profiled surface,
A doping process of p+ or n+ type for semiconductors, comprising the steps of: • providing a substrate made of semiconductor material; • depositing on a surface of the substrate made of semiconductor material a thin source layer made of dopant material acting as dopant source; • depositing on said source layer an additional surface layer of semiconductor material; • inducing liquefaction of the surface layer at least until the source layer, so as to obtain the diffusion of the dopant material; • cooling down the substrate surface, so as to obtain solidification of the semiconductor material with incorporation of the dopant itself. • providing a substrate made of semiconductor material; • depositing on a surface of the substrate made of semiconductor material a thin source layer made of dopant material acting as dopant source; • depositing on said source layer an additional surface layer of semiconductor material; • inducing liquefaction of the surface layer at least until the source layer, so as to obtain the diffusion of the dopant material; • cooling down the substrate surface, so as to obtain solidification of the semiconductor material with incorporation of the dopant itself.
Arrangement for transmitting data via a data bus, wherein a characteristic impedance is operative for signals sent via the data bus lines, wherein each data bus line is connected to a potential of a supply voltage by way of a resistor (R B), in particular a BIAS resistor, the resistance value of which is at least twenty times greater than the characteristic impedance value, wherein at least a resistor (R T), the resistance value of which is equal to the characteristic impedance value, and a capacitor (C T) are arranged in series between the data bus lines in the form of a termination circuit, wherein an inductor (L 1, L 2) of a common-mode line impedance is arranged in each case between the terminals of the termination circuit and each data bus line, wherein the inductors have a shared coil core, wherein a first inductor of the common-mode line impedance is arranged between a first terminal of the termination circuit and a first data bus line, and wherein a second inductor of the common-mode line impedance is arranged between a second terminal of the termination circuit and a second data bus line. wherein a characteristic impedance is operative for signals sent via the data bus lines, wherein each data bus line is connected to a potential of a supply voltage by way of a resistor (R B), in particular a BIAS resistor, the resistance value of which is at least twenty times greater than the characteristic impedance value, wherein at least a resistor (R T), the resistance value of which is equal to the characteristic impedance value, and a capacitor (C T) are arranged in series between the data bus lines in the form of a termination circuit, wherein an inductor (L 1, L 2) of a common-mode line impedance is arranged in each case between the terminals of the termination circuit and each data bus line, wherein the inductors have a shared coil core, wherein a first inductor of the common-mode line impedance is arranged between a first terminal of the termination circuit and a first data bus line, and wherein a second inductor of the common-mode line impedance is arranged between a second terminal of the termination circuit and a second data bus line.
A shape-memory alloy wire actuation system for an infusion pump comprising: at least one shape-memory alloy wire (112,632); a valve member (108,638) connected to the at least one shape-memory alloy wire wherein the shape-memory alloy wire, when actuated, actuates the valve member; a controller for controlling the ontime of the at least one shape-memory alloy wire; and a temperature sensor for determining the temperature of the shape-memory alloy wire, characterised in that the controller determines an ontime based on the temperature of the shape-memory alloy wire before actuation and actuates the shape-memory alloy wire for the determined ontime. at least one shape-memory alloy wire (112,632); a valve member (108,638) connected to the at least one shape-memory alloy wire wherein the shape-memory alloy wire, when actuated, actuates the valve member; a controller for controlling the ontime of the at least one shape-memory alloy wire; and a temperature sensor for determining the temperature of the shape-memory alloy wire,
A method for forming a graded index (GRIN) on a substrate, the method comprising: applying a metal layer to the substrate; controlling a fluence profile of optical energy applied to the metal layer to substantially ablate the metal layer to create a vaporized metal layer; and further controlling the fluence profile of the optical energy to control a size of metal nanoparticles created from the vaporized metal layer as the vaporized metal layer condenses and forms metal nanoparticles, the metal nanoparticles being deposited back on the substrate to form a GRIN surface on the substrate where the GRIN surface formed includes a spatially varying, controlled pattern of the metal nanoparticles on the substrate. applying a metal layer to the substrate; controlling a fluence profile of optical energy applied to the metal layer to substantially ablate the metal layer to create a vaporized metal layer; and further controlling the fluence profile of the optical energy to control a size of metal nanoparticles created from the vaporized metal layer as the vaporized metal layer condenses and forms metal nanoparticles, the metal nanoparticles being deposited back on the substrate to form a GRIN surface on the substrate where the GRIN surface formed includes a spatially varying, controlled pattern of the metal nanoparticles on the substrate.