mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for lifting and transporting a load, in which the load is an ISO-container, comprises a supporting frame, means (16, 18) for moving the apparatus relative to the ground, means for lifting and lowering the load comprising a respective mast, and means for gripping the load, which can move along the mast; the mast comprising a first part connected to the frame and an extendable part connected to the first part; the apparatus also comprising apparatus traction or movement driving means (24, 24), and means (26, 26) for driving the lifting and lowering of the extendable part of the mast, of the load gripping means, and eventually of the load; characterised in that the means (26, 26) for driving the lifting are in the form of corresponding electric motor means powered by corresponding electricity accumulator means; in that, during the lowering strokes of the extendable part of the mast, of the load gripping means, and eventually of the load, there are said the electric motor means (26, 26) of the lifting means which are designed to act as means for generating electricity, and whose electricity produced is supplied to corresponding electricity accumulator means, which power the same electric motor means (26, 26); and in that it comprises main electricity generating means which comprise an internal combustion engine that drives a corresponding electricity generator connected so as to transmit power to said electricity accumulator means (30, 130).
Wind turbine comprising an apparatus for monitoring a rotational speed of said wind turbine, wherein the wind turbine comprises a rotor shaft which is driven by the rotor and ends into a gear unit, a generator shaft which connects an output shaft of the gear unit with a generator/converter unit, • a first rotational speed detection unit for the rotor shaft and a second rotational speed detection unit for the generator shaft, and • a processing unit for the rotational speed, to which measured signals (28, 30, 36, 38) of the rotational speed detection units (26, 34) are applied and which is configured to generate an error signal for a rotational overspeed if a certain maximum value for the rotational speed is exceeded, characterised in that each rotational speed detection unit (26, 34) comprises at least two rotational speed sensors working independently of each other, and that the processing unit for the rotational speed is configured to compare the measured values (28, 30, 36, 38) of the first rotational speed detection unit with the measured values of the second rotational speed detection unit, taking into account a gear ratio, and to generate an error signal for a shaft defect if the rotational speed values differ by more than a predetermined threshold value. • a first rotational speed detection unit for the rotor shaft and a second rotational speed detection unit for the generator shaft, and • a processing unit for the rotational speed, to which measured signals (28, 30, 36, 38) of the rotational speed detection units (26, 34) are applied and which is configured to generate an error signal for a rotational overspeed if a certain maximum value for the rotational speed is exceeded, characterised in that each rotational speed detection unit (26, 34) comprises at least two rotational speed sensors working independently of each other, and that the processing unit for the rotational speed is configured to compare the measured values (28, 30, 36, 38) of the first rotational speed detection unit with the measured values of the second rotational speed detection unit, taking into account a gear ratio, and to generate an error signal for a shaft defect if the rotational speed values differ by more than a predetermined threshold value.
Process for the manufacture of a pharmaceutical dosage form comprising nifedipine in the core and candesartan cilexetil in the active coating layer with mean candesartan cilexetil content of 95-105%, characterized in that the candesartan cilexetil active coating process is performed until the desired amount of candesartan cilexetil has been applied to the tablets as determined by in-line NIR or Raman spectroscopy.
A system for measuring the density of a fluid in a vessel (210; 410), the system comprising: at least one gamma-ray source (200; 300; 400) positioned proximate to the vessel (210; 410); characterised by a plurality of gamma-ray detectors (310; 420) positioned proximate to the vessel and disposed circumferentially about the vessel with respect to each other, wherein the plurality of gamma-ray detectors (310; 420) are configured to detect gamma rays backscattered by the fluid from the at least one gamma-ray source (300; 400); and a translator for converting the detected gamma-ray backscatter to a density value. at least one gamma-ray source (200; 300; 400) positioned proximate to the vessel (210; 410); characterised by a plurality of gamma-ray detectors (310; 420) positioned proximate to the vessel and disposed circumferentially about the vessel with respect to each other, wherein the plurality of gamma-ray detectors (310; 420) are configured to detect gamma rays backscattered by the fluid from the at least one gamma-ray source (300; 400); and a translator for converting the detected gamma-ray backscatter to a density value.
A coating composition comprising a treated inorganic particle having reduced photoactivity and improved anti-microbial properties, wherein the treated inorganic particle comprises: a. an inorganic core particle; b. a first treatment of a silicon compound, wherein the silicon compound is added in a single step; and c. a second treatment comprising co-precipitated zinc oxide and alumina. a. an inorganic core particle; b. a first treatment of a silicon compound, wherein the silicon compound is added in a single step; and c. a second treatment comprising co-precipitated zinc oxide and alumina.
A high pressure processing device comprising: a processing module having a flow path with a geometry configured to convert a high pressure to shear or impact forces on a material passing through the processing module; a pump configured to pump the material to an inlet of the processing module at high pressure, the high pressure being between 5,000 psi (about 34,475,000 N/m 2) and 45,000 psi (about 310,275,000 N/m 2); a recirculation pathway configured to recirculate the material from an outlet of the processing module back to the pump; an input device configured to receive at least one user input variable; and a controller having a processor, a memory in communication with the processor, configured to (i) receive a value indicating a number of passes the material needs to be processed through the processing module and to store the value in the memory; (ii) determine a number of pump strokes for the pump so that the material makes the predetermined number of passes through the processing module indicated by the value, and (iii) control the pump according to the determined number of pump strokes so that the material makes the predetermined number of passes through the processing module. a processing module having a flow path with a geometry configured to convert a high pressure to shear or impact forces on a material passing through the processing module; a pump configured to pump the material to an inlet of the processing module at high pressure, the high pressure being between 5,000 psi (about 34,475,000 N/m 2) and 45,000 psi (about 310,275,000 N/m 2); a recirculation pathway configured to recirculate the material from an outlet of the processing module back to the pump; an input device configured to receive at least one user input variable; and a controller having a processor, a memory in communication with the processor, configured to (i) receive a value indicating a number of passes the material needs to be processed through the processing module and to store the value in the memory; (ii) determine a number of pump strokes for the pump so that the material makes the predetermined number of passes through the processing module indicated by the value, and (iii) control the pump according to the determined number of pump strokes so that the material makes the predetermined number of passes through the processing module.
A fluid treatment system configured to treat a fluid stream, comprising: a fluid injection or disposal well; one or more fluid treatment tanks (20, 30), wherein the one or more fluid treatment tanks comprise at least one separator; one or more downstream pipes connecting the one or more fluid treatment tanks with the fluid injection or disposal well; one or more upstream pipes in fluid connection with the one or more fluid treatment tanks; and an ozone injection system configured to inject ozone gas or an ozone-oxygen mixture gas into the fluid stream prior to the fluid reaching the fluid injection or disposal well, characterized in that the ozone injection system is configured to inject the ozone gas or an ozone-oxygen mixture gas upstream of the one or more fluid treatment tanks, wherein the ozone gas or ozone-oxygen mixture gas is injected as nano-bubbles or micro-bubbles in the upstream pipes and optionally in the downstream pipes and/or fluid injection or disposal well; and the fluid treatment system comprises a nitrogen delivery system configured to inject nitrogen or nitrogen-rich gas into the fluid stream as nano-bubbles or microbubbles a fluid injection or disposal well; one or more fluid treatment tanks (20, 30), wherein the one or more fluid treatment tanks comprise at least one separator; one or more downstream pipes connecting the one or more fluid treatment tanks with the fluid injection or disposal well; one or more upstream pipes in fluid connection with the one or more fluid treatment tanks; and an ozone injection system configured to inject ozone gas or an ozone-oxygen mixture gas into the fluid stream prior to the fluid reaching the fluid injection or disposal well, the ozone injection system is configured to inject the ozone gas or an ozone-oxygen mixture gas upstream of the one or more fluid treatment tanks, wherein the ozone gas or ozone-oxygen mixture gas is injected as nano-bubbles or micro-bubbles in the upstream pipes and optionally in the downstream pipes and/or fluid injection or disposal well; and the fluid treatment system comprises a nitrogen delivery system configured to inject nitrogen or nitrogen-rich gas into the fluid stream as nano-bubbles or microbubbles
A light fixture comprising a first element and a second element joined by cooperating first and second attachment structures (125, 126), wherein the first attachment structure is located in a first compartment in the first element and extends in a first direction towards the second element, wherein the second attachment structure forms part of the second element, wherein the first element comprises an outwardly projecting wall portion forming a first collar circumferentially around a first opening in the first element, the projecting wall portion extending in a second direction being transverse to the first direction and terminating in a first free edge outside the first compartment, wherein the second element comprises a groove configured to receive the first collar, the groove extending circumferentially around a centre axis of the second attachment structure, characterized in that the groove comprises a first outwardly extending surface portion and a second outwardly extending surface portion, each of the first and second outwardly extending surface portions (135B, 135C) extending towards the first element from an outer surface of the second element and terminating at an opposite end point, the first and second outwardly extending surface portions (135B, 135C) each extending circumferential around the centre axis of the second attachment structure.
A liquid container comprising: - a base, having a respective lower end and upper end, and - a cap, having a respective lower end and upper end, wherein the base and the cap are arranged to be interengaged to form a hermetic seal, such that a liquid chamber, formed within the base, adjacent the lower end thereof is sealed off, wherein the cap has an elongated body defining a curved upper region with a non-circular portion adjacent the upper end of the cap, and the base has a curved inner surface adjacent the upper end of the base with a non-circular portion of complementary shape to the curved non-circular portion of the upper region of the cap, whereby, when the base and the cap are interengaged, the respective upper ends (39, 19) are snugly engaged with each other, wherein the lower end of the cap is arranged to engage sealingly with the liquid chamber, within the base, to form the hermetic seal, with the lower end of the engaged cap being spaced from the lower end of the base so as to define the hermetically sealed chamber, and wherein the upper region of the cap is flared progressively outwardly from the lower end towards the upper end of the cap, the container being configured such that the cap, when interengaged with the base, is arranged to be manually rotated axially clockwise or anticlockwise, so that the non-circular portion of the curved upper region of the cap interacts with the non-circular portion of the curved inner surface of the base in such manner that the upper region of the cap rises up over the upper end of the base so as to be released from the base and thereby to cause the cap to be moved out of the base and the hermetic seal of the liquid chamber to be broken. - a base, having a respective lower end and upper end, and - a cap, having a respective lower end and upper end,
A split-screen display processing method, wherein the method comprises: obtaining a screen splitting operation performed by a user on a touchscreen; splitting a current display screen into two areas based on the screen splitting operation, and displaying, in a first area, an interface of a first application that is displayed on the display screen before the screen splitting; obtaining, from installed applications by using a clustering algorithm, at least one second application to be combined with the first application in a split-screen manner, comprising obtaining, by using an unsupervised learning clustering algorithm and based on historical data of combining each installed application with the first application in the split-screen manner, the at least one second application to be combined with the first application in the split-screen manner; and displaying an identifier of the at least one second application for user selection in a second area after the screen splitting; when the identifier of the at least one second application is displayed in the second area and selected by the user, further displaying another started application in a system in the second area. obtaining a screen splitting operation performed by a user on a touchscreen; splitting a current display screen into two areas based on the screen splitting operation, and displaying, in a first area, an interface of a first application that is displayed on the display screen before the screen splitting; obtaining, from installed applications by using a clustering algorithm, at least one second application to be combined with the first application in a split-screen manner, comprising obtaining, by using an unsupervised learning clustering algorithm and based on historical data of combining each installed application with the first application in the split-screen manner, the at least one second application to be combined with the first application in the split-screen manner; and displaying an identifier of the at least one second application for user selection in a second area after the screen splitting; when the identifier of the at least one second application is displayed in the second area and selected by the user, further displaying another started application in a system in the second area.
A format converter for converting a format of an audio content, which represents an audio scene, from a first format to a second format, wherein the format converter is configured provide a representation of the audio content in the second format on the basis of the representation of the audio content in the first format; wherein the format converter is configured to adjust a complexity of the format conversion in dependence on contributions of input audio signals (112, 112 1, 112 2, 112 3, 112a, 112b) of the first format to an overall directional loudness map of the audio scene; wherein the overall directional loudness map represents loudness information associated with different directions. wherein the format converter is configured provide a representation of the audio content in the second format on the basis of the representation of the audio content in the first format; wherein the format converter is configured to adjust a complexity of the format conversion in dependence on contributions of input audio signals (112, 112 1, 112 2, 112 3, 112a, 112b) of the first format to an overall directional loudness map of the audio scene; wherein the overall directional loudness map represents loudness information associated with different directions.
A method for producing a coating of a surface of a substrate having at least one recess with a coating material, characterised in that - first of all a liquid auxiliary substance is applied to the surface of the substrate and the at least one recess in the surface of the substrate is filled in with the liquid auxiliary substance, - with the coating material then being applied to the auxiliary substance on the substrate, - with at least part of the coating material being transported into the at least one recess in the surface which is filled with the liquid auxiliary substance by diffusion of the coating material in the liquid auxiliary substance, - with the auxiliary substance then being removed from the surface of the substrate, the coating material remaining behind at least in part on the surface of the substrate and forming the coating of the surface including the at least one recess with the coating material. - first of all a liquid auxiliary substance is applied to the surface of the substrate and the at least one recess in the surface of the substrate is filled in with the liquid auxiliary substance, - with the coating material then being applied to the auxiliary substance on the substrate, - with at least part of the coating material being transported into the at least one recess in the surface which is filled with the liquid auxiliary substance by diffusion of the coating material in the liquid auxiliary substance, - with the auxiliary substance then being removed from the surface of the substrate, the coating material remaining behind at least in part on the surface of the substrate and forming the coating of the surface including the at least one recess with the coating material.
A method of purifying exhaust gas, for reducing nitrogen oxides by ammonia in the presence of a catalyst, the exhaust gas including combustion ashes containing a Fe component, the catalyst being supported on a metal substrate, the catalyst containing titanium oxide as a main component and oxides of molybdenum (Mo) and vanadium as an active component, wherein phosphoric acid or a water soluble phosphoric acid compound is added to the active component so that the atomic ratio of phosphorus to a catalytically active component represented by the following formula is 0.2 to 1.0; P / catalytically active component atomic ratio = number of moles of P / number of moles of Mo + number of moles of V, thereby the Fe component is reacted with the phosphorus compound to form an insoluble iron phosphate, to suppress SO 2 oxidation of the catalyst caused by adhesion of the Fe component to the catalyst, and by corrosion of the metal substrate.
A diagphragm for a diagphragm valve, the diagphragm comprising an elastomer portion which - has an inwardly facing first region, which has a first elastomer material with a first material-dependent compression set, and - has a clamping portion with a second region and a third region, the clamping portion being used to clamp the diagphragm between a valve body and a drive body; the second region being adjoined radially inward by the annular third region, which is part of the first region characterized in that the elastomer portion comprises the second region laterally surrounding the first region, which second region has a second elastomer material with a second material-dependent compression set which is smaller than the first compression set. - has an inwardly facing first region, which has a first elastomer material with a first material-dependent compression set, and - has a clamping portion with a second region and a third region, the clamping portion being used to clamp the diagphragm between a valve body and a drive body; the second region being adjoined radially inward by the annular third region, which is part of the first region characterized in that the elastomer portion comprises the second region laterally surrounding the first region, which second region has a second elastomer material with a second material-dependent compression set which is smaller than the first compression set. the clamping portion being used to clamp the diagphragm between a valve body and a drive body; the second region being adjoined radially inward by the annular third region, which is part of the first region characterized in that the elastomer portion comprises the second region laterally surrounding the first region, which second region has a second elastomer material with a second material-dependent compression set which is smaller than the first compression set.