mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a catalyst for the oxidation of an olefin to an unsaturated aldehyde comprising: a. dissolving compounds of molybdenum, bismuth, iron, cesium, and optional compounds of tungsten, M and M' in water or acid to form a reaction solution, b. wherein M is one or more selected from antimony, phosphorus, boron, sulfur, silicon, aluminum, titanium, tellurium, vanadium, zirconium and niobium and M' is one or more selected from cobalt, nickel, magnesium, zinc, potassium, rubidium, thallium, manganese, barium, chromium, cerium, tin, lead, cadmium and copper; c. precipitating a solid in the reaction solution to form a reaction slurry; d. aging the slurry for 5 to 10 hours with no agitation; e. evaporating liquid from the slurry to form a solid catalyst precursor; f. calcining the solid to form oxides of the metals to form a catalyst of the general formula: Mo 12 Bi a W b Fe c Cs g M m M' m' O x wherein a is in the range from 0.1 to 1.5, b is 0 to 9, c is in the range from 0.2 to 5.0, g is in the range from 0.1 to 1.5, m is in the range from 0 to 9, m' is from 0 to 9 and x is determined by the valences of the other components. a. dissolving compounds of molybdenum, bismuth, iron, cesium, and optional compounds of tungsten, M and M' in water or acid to form a reaction solution, b. wherein M is one or more selected from antimony, phosphorus, boron, sulfur, silicon, aluminum, titanium, tellurium, vanadium, zirconium and niobium and M' is one or more selected from cobalt, nickel, magnesium, zinc, potassium, rubidium, thallium, manganese, barium, chromium, cerium, tin, lead, cadmium and copper; c. precipitating a solid in the reaction solution to form a reaction slurry; d. aging the slurry for 5 to 10 hours with no agitation; e. evaporating liquid from the slurry to form a solid catalyst precursor; f. calcining the solid to form oxides of the metals to form a catalyst of the general formula: Mo 12 Bi a W b Fe c Cs g M m M' m' O x wherein a is in the range from 0.1 to 1.5, b is 0 to 9, c is in the range from 0.2 to 5.0, g is in the range from 0.1 to 1.5, m is in the range from 0 to 9, m' is from 0 to 9 and x is determined by the valences of the other components.
A method of reducing power consumption in a User Equipment, UE, in idle mode, the method comprising: acquiring (110, 115, 120) a RANK Rs of a serving cell and RANKs Rn of one or more neighbor cells by the UE connected to a mobile communication network; determining a rate of performing neighbor cell measurements at variable intervals in the idle mode of the UE based on the RANK information Rs of the serving cell and Rn of the one or more neighbor cells; performing neighbor cell measurements at the determined rate. acquiring (110, 115, 120) a RANK Rs of a serving cell and RANKs Rn of one or more neighbor cells by the UE connected to a mobile communication network; determining a rate of performing neighbor cell measurements at variable intervals in the idle mode of the UE based on the RANK information Rs of the serving cell and Rn of the one or more neighbor cells; performing neighbor cell measurements at the determined rate.
Agricultural machine for spraying a phytosanitary liquid on a cultivated land, comprising - means (10, 11) for moving the machine over a surface of the land, - a spray boom for spraying the phytosanitary liquid comprising at least one arm (2a, 2b, 2c), - a mechanism for inclining (3, 3a, 3b, 3c) the boom and/or at least one of the arms (2a, 2b, 2c) in relation to the frame of the machine, - a mechanism for raising/lowering the boom according to an axis fixed in relation to the frame of the machine and vertical, and even substantially vertical, when the machine is on a flat and horizontal surface and - a control unit, the agricultural machine being provided with a manual control system (38, 38a, 38b, 38c, 38') for controlling the mechanism for raising/lowering and/or for controlling at least one mechanism for inclining (3, 3a, 3b, 3c), a cabin of the machine being configured so that a user may control simultaneously the means (10, 11) for moving the machine, with the wheel and the manual control system (38, 38a, 38b, 38c, 38'), at least one of the arms (2a, 2b, 2c) of the boom being provided with at least one sensor (6, 6a, 6b, 6c), each sensor (6, 6a, 6b, 6c) measuring a distance (d) between the surface of the land and this sensor (6, 6a, 6b, 6c) or, where applicable, between vegetation planted in the land and this sensor (6, 6a, 6b, 6c) and the control unit being - connected to each sensor (6, 6a, 6b, 6c), - provided with a memory for storing the information (d) provided by each sensor (6, 6a, 6b, 6c) and - able to control the mechanism for raising/lowering depending on the information (d) stored in the memory. - means (10, 11) for moving the machine over a surface of the land, - a spray boom for spraying the phytosanitary liquid comprising at least one arm (2a, 2b, 2c), - a mechanism for inclining (3, 3a, 3b, 3c) the boom and/or at least one of the arms (2a, 2b, 2c) in relation to the frame of the machine, - a mechanism for raising/lowering the boom according to an axis fixed in relation to the frame of the machine and vertical, and even substantially vertical, when the machine is on a flat and horizontal surface and - a control unit, - connected to each sensor (6, 6a, 6b, 6c), - provided with a memory for storing the information (d) provided by each sensor (6, 6a, 6b, 6c) and - able to control the mechanism for raising/lowering depending on the information (d) stored in the memory.
A method comprising: receiving raw signal data comprising signal noise; encoding, by a denoised autoencoder, the raw signal data by performing a denoising autoencoder operation to produce a latent representation; and decoding, by the denoised autoencoder, the latent representation to produce clean signal data reconstructed without the signal noise; characterised in that the denoised autoencoder is trained based on a loss function that emphasizes atrial activity and the raw signal data is raw intracardiac signal data. receiving raw signal data comprising signal noise; encoding, by a denoised autoencoder, the raw signal data by performing a denoising autoencoder operation to produce a latent representation; and decoding, by the denoised autoencoder, the latent representation to produce clean signal data reconstructed without the signal noise; characterised in that the denoised autoencoder is trained based on a loss function that emphasizes atrial activity and the raw signal data is raw intracardiac signal data.
A method for determining a volume flow and/or mass flow of a medium flowing in a pipe, wherein a density and/or a viscosity of the fluid is/are determined using an MEMS sensor chip, wherein the medium flowing in the pipe flows through at least part of a measurement channel of the MEMS sensor chip for determining the density and/or the viscosity of the fluid, wherein an orifice plate is inserted into the pipe in such a way that the flow passes through the orifice plate and the measurement channel of the MEMS sensor chip in parallel and a pressure drop (| p2-p1 |) is generated by the orifice plate inserted into the pipe and the measurement channel of the MEMS sensor chip, said pipe having the medium flow through at least part of it, wherein the orifice plate and the measurement channel are coordinated in such a way that a flow ratio from the medium flowing through the measurement channel to the medium flowing through the orifice plate is set to less than 1:20, wherein the pressure drop is registered, characterized in that the volume flow and/or mass flow of the medium is/are determined independently of the medium using the registered pressure drop (| p2-p1 |) and the density and/or viscosity determined by the MEMS sensor chip. wherein an orifice plate is inserted into the pipe in such a way that the flow passes through the orifice plate and the measurement channel of the MEMS sensor chip in parallel and a pressure drop (| p2-p1 |) is generated by the orifice plate inserted into the pipe and the measurement channel of the MEMS sensor chip, said pipe having the medium flow through at least part of it, wherein the orifice plate and the measurement channel are coordinated in such a way that a flow ratio from the medium flowing through the measurement channel to the medium flowing through the orifice plate is set to less than 1:20, wherein the pressure drop is registered, characterized in that the volume flow and/or mass flow of the medium is/are determined independently of the medium using the registered pressure drop (| p2-p1 |) and the density and/or viscosity determined by the MEMS sensor chip.
A method for operating a computer tomograph, which has a rotationally fixed gantry, in which a plurality of X-ray emitters, radiation influencing means, and X-ray detectors are rigidly arranged, wherein the X-ray emitters have several electron emitters cooperating with a common anode, and sectional images are formed from projection images of a changing object to be examined, wherein a first set of projection images, recorded from different projection directions, is generated, and at least one additional set of projection images is recorded, wherein the projection directions at least partially correspond to the projection directions of the first set of projection images, characterized in that the degree of conformity between at least two respective projection images recorded from corresponding projection directions is determined and further projection images are generated, wherein the frequency of the selected projection directions is a function of the level of the conformity of the projection images recorded from the respective projection directions at consecutive points in time.
Drop head for a formwork system for floor slabs having at least one support which is pivotable about a substantially horizontal axis, characterised in that the support can be lowered in at least two stages, starting from a concreting position, wherein, in a first, upper lowering stage, pivoting of the support about a substantially horizontal axis is blocked, and in a second, lower lowering stage the support is pivotable about a substantially horizontal axis.
A hybrid coating comprising a mixture of an organosilane component, a metal alkoxide component and a surfactant component, wherein said metal alkoxide component is present in said mixture at a molar ratio of about 2:1 with respect to said organosilane component.
A battery module, comprising: a battery cell stack having a plurality of battery cells stacked; and a plurality of bus bars disposed adjacent to electrode leads provided at the plurality of battery cells, wherein the electrode leads provided at the plurality of battery cells are electrically connected to the plurality of bus bars, respectively, wherein the bus bar has an inclined portion and the electrode lead has a first bent portion bent at a slope corresponding to the inclination of the inclined portion so that the electrode lead comes into contact with the inclined portion of the bus bar, and wherein the bus bar further has a horizontal portion horizontally extending from the inclined portion, wherein the horizontal portion extends perpendicular to the longitudinal direction of the battery cell, wherein the electrode lead further has a second bent portion bent corresponding to the horizontal portion so that the electrode lead comes into contact with the horizontal portion of the bus bar, and characterized in that the battery module further comprises an elastic member configured to press the electrode leads so that the electrode leads are respectively coupled to the plurality of bus bars, wherein the elastic member includes: a support portion contacting with and supported by the bus bar at an upper side of the bus bar; and a plurality of pressing portions extending from the support portion to press the electrode leads. a battery cell stack having a plurality of battery cells stacked; and a plurality of bus bars disposed adjacent to electrode leads provided at the plurality of battery cells, wherein the electrode leads provided at the plurality of battery cells are electrically connected to the plurality of bus bars, respectively, wherein the bus bar has an inclined portion and the electrode lead has a first bent portion bent at a slope corresponding to the inclination of the inclined portion so that the electrode lead comes into contact with the inclined portion of the bus bar, and wherein the bus bar further has a horizontal portion horizontally extending from the inclined portion, wherein the horizontal portion extends perpendicular to the longitudinal direction of the battery cell, wherein the electrode lead further has a second bent portion bent corresponding to the horizontal portion so that the electrode lead comes into contact with the horizontal portion of the bus bar, and characterized in that the battery module further comprises an elastic member configured to press the electrode leads so that the electrode leads are respectively coupled to the plurality of bus bars, wherein the elastic member includes: a support portion contacting with and supported by the bus bar at an upper side of the bus bar; and a plurality of pressing portions extending from the support portion to press the electrode leads. a support portion contacting with and supported by the bus bar at an upper side of the bus bar; and a plurality of pressing portions extending from the support portion to press the electrode leads.
A sample processing device (500, 540, 600) comprising: a tube (502, 542, 602) comprising: open and closed ends; and a removable basket (506, 546, 606) with a grid (508, 548, 608) and a plurality of tabs (510, 550, 610) that hang over an edge at the open end of the tube; and a cap (504, 544, 604) configured to couple to the open end of the tube to at least partially seal the tube, the cap comprising: a ring-shaped punch edge (516, 556, 616) for punching a sample out of a crude biological material; and a plurality of fingers (518, 558) or teeth for forcing the sample through the grid of the removable basket in the tube. a tube (502, 542, 602) comprising: open and closed ends; and a removable basket (506, 546, 606) with a grid (508, 548, 608) and a plurality of tabs (510, 550, 610) that hang over an edge at the open end of the tube; and open and closed ends; and a removable basket (506, 546, 606) with a grid (508, 548, 608) and a plurality of tabs (510, 550, 610) that hang over an edge at the open end of the tube; and a cap (504, 544, 604) configured to couple to the open end of the tube to at least partially seal the tube, the cap comprising: a ring-shaped punch edge (516, 556, 616) for punching a sample out of a crude biological material; and a plurality of fingers (518, 558) or teeth for forcing the sample through the grid of the removable basket in the tube. a ring-shaped punch edge (516, 556, 616) for punching a sample out of a crude biological material; and a plurality of fingers (518, 558) or teeth for forcing the sample through the grid of the removable basket in the tube.
Method for preparing workpieces made from a sheet-like material, in particular sheet metal, for automated stacking, comprising a machine tool, which has a workpiece support and at least one machining tool (20, 21) for machining the workpiece resting on the workpiece support, and comprising a handling device, by means of which the workpiece is removed from the workpiece support and stacked in a magazine or transferred to a downstream workstation, and at least one additional stacking element is attached to the workpiece, by means of which the workpieces are stackable on top of one another and which is removed from the respective workpiece before or after the at least one downstream process or after the workpieces have been stacked, characterised in that - as the stacking element there is provided at least one supporting element on or abutting the workpiece, by means of which the one workpiece is stacked on top of the further workpiece in a tilt-free manner, and the supporting element is mounted directly on or abutting the workpiece by means of a predetermined breaking point, which is designed as a weak welding point, or - as the stacking element there is formed at least one connecting element, which can be joined to the workpiece by means of a micro joint connection as the predetermined breaking point. - as the stacking element there is provided at least one supporting element on or abutting the workpiece, by means of which the one workpiece is stacked on top of the further workpiece in a tilt-free manner, and the supporting element is mounted directly on or abutting the workpiece by means of a predetermined breaking point, which is designed as a weak welding point, or - as the stacking element there is formed at least one connecting element, which can be joined to the workpiece by means of a micro joint connection as the predetermined breaking point.
Electric fence energizer system for energizing an electric fence comprising: - an energizer unit connectable with a fence, - connecting means for connecting the energizer unit with a battery, - a solar module for converting sunlight into electrical energy and - a charging circuit for receiving energy from the solar module and for providing charging energy to a battery which is connectable by the connecting means, characterized in that the charging circuit is adapted to provide a charging energy adapted to charge batteries comprising at least one primary cell. - an energizer unit connectable with a fence, - connecting means for connecting the energizer unit with a battery, - a solar module for converting sunlight into electrical energy and - a charging circuit for receiving energy from the solar module and for providing charging energy to a battery which is connectable by the connecting means, characterized in that the charging circuit is adapted to provide a charging energy adapted to charge batteries comprising at least one primary cell.
An internet protocol based audio alert system for managing security across a site, comprising a network of a central server computer and one or more client computer (14, 30) communicating across the internet with a plurality of programmable edge devices and which control the operation of audiovisual input means and audiovisual output means (20, 22, 24, 26) located across the site, the programmable edge devices being programmed with software to enable them to store alert messages and send the alert messages to the audiovisual output means (20, 22, 24, 26) where the alert messages are broadcast in response to triggers received by the audiovisual input means, the audiovisual output means (20, 22, 24, 26) comprising a loudspeaker (50, 62, 64) connected to each programmable edge device, characterised in that the system further includes means for monitoring the ambient temperature at each loudspeaker (50, 62, 64) and automatically adjusting the broadcast of the alert messages from one or more of the loudspeakers to compensate for the variation in the speed of sound at different temperatures and so as to synchronize the broadcast of the alert messages by each loudspeaker (50, 62, 64), and wherein the ambient temperature at each loudspeaker (50, 62, 64) is received by the edge device which controls the operation of its loudspeaker (50, 62, 64), and the edge device applies the ambient temperature at its loudspeaker (50, 62, 64) and the distance of the loudspeaker (50, 62, 64) to a nominated central reference point, to an algorithm stored on the edge device which calculates a time delay that is used to automatically adjust the broadcast timing and synchronization of the alert messages; the system further includes means for monitoring the ambient noise at each loudspeaker (50, 62, 64) and automatically adjusting the volume of the alert messages from one or more of the loudspeakers (50, 62, 64) to compensate for the ambient noise; and the means for monitoring the ambient temperature at each loudspeaker (50, 62, 64) comprises a temperature sensor located on or adjacent to the loudspeaker (50, 62, 64).
A method for controlling a cooker, comprising: supplying energy into a cooking chamber by at least one heating source based on receiving a manipulation signal; ventilating the cooking chamber by a fan motor based on the manipulation signal; furnishing steam water by a water supply pump for generating steam supplied to the cooking chamber and generating steam by heating steam water furnished by the water supply pump by a steam heater based on arrived steam generating start time (Ts); finishing the operation of the supply pump, if water supply end time has arrived; finishing the operation of the steam heater, if steam heating end time has arrived; finishing the operation of the at least one heating source, if heating end time has arrived; and finishing the operation of the fan motor, if fan motor end time has arrived, characterized in that the operation of the steam heater is finished after the operation of the water supply pump is finished. supplying energy into a cooking chamber by at least one heating source based on receiving a manipulation signal; ventilating the cooking chamber by a fan motor based on the manipulation signal; furnishing steam water by a water supply pump for generating steam supplied to the cooking chamber and generating steam by heating steam water furnished by the water supply pump by a steam heater based on arrived steam generating start time (Ts); finishing the operation of the supply pump, if water supply end time has arrived; finishing the operation of the steam heater, if steam heating end time has arrived; finishing the operation of the at least one heating source, if heating end time has arrived; and finishing the operation of the fan motor, if fan motor end time has arrived, characterized in that the operation of the steam heater is finished after the operation of the water supply pump is finished.