mhurhangee/ep-ind-claims huggingface dataset:
An image processing unit, for detecting event data during a game round of a roulette wheel via a camera, thereby enabling detection of a roulette wheel bias, which roulette wheel comprises a ball track, upon which a roulette ball is brought into rotation around the roulette wheel, and a sloping lower ball track comprising ball deflectors (13, 15), encircling a rotor; wherein the image processing unit is configured for: receiving at least one captured image of the roulette ball from the camera; detecting that the roulette ball, under influence of gravity, reaches an imaginary circle encircling the ball deflectors (13, 15) of the lower ball track; and determining a position where it is detected that the roulette ball reaches the imaginary circle; which position is determined by dividing the roulette wheel into a number of drop zones; storing the determined drop zone position statistics in a database, thereby enabling detection of a roulette wheel bias by detecting a deviation from collected and stored drop zone statistics of a plurality of game rounds, characterised in that the image processing unit is further configured for: detecting that the roulette ball is reaching a pre-defined area in a proximity of one of the ball deflectors (13,15); and determining an identity of said ball deflector (13, 15); and wherein the database is further configured for storing statistics concerning the determined identity of said ball deflector (13, 15) thereby enabling detection of a deviation from an expected distribution of statistics concerning identity of ball deflectors (13, 15) collected and stored for each roulette wheel, for a large number of game rounds. receiving at least one captured image of the roulette ball from the camera; detecting that the roulette ball, under influence of gravity, reaches an imaginary circle encircling the ball deflectors (13, 15) of the lower ball track; and determining a position where it is detected that the roulette ball reaches the imaginary circle; which position is determined by dividing the roulette wheel into a number of drop zones; storing the determined drop zone position statistics in a database, thereby enabling detection of a roulette wheel bias by detecting a deviation from collected and stored drop zone statistics of a plurality of game rounds, characterised in that the image processing unit is further configured for: detecting that the roulette ball is reaching a pre-defined area in a proximity of one of the ball deflectors (13,15); and determining an identity of said ball deflector (13, 15); and wherein the database is further configured for storing statistics concerning the determined identity of said ball deflector (13, 15) thereby enabling detection of a deviation from an expected distribution of statistics concerning identity of ball deflectors (13, 15) collected and stored for each roulette wheel, for a large number of game rounds.
A method for producing a turbomachine impeller comprising the following steps: (a) producing by additive manufacturing a plurality of separate segments of the impeller, at least some of the separate segments having a skin surrounding at least one empty volume (11V, 5V) corresponding to a massive part of the impeller; (b) assembling the separate segments of the impeller together forming a semi-finished component, the empty volumes of the segments forming at least one inner cavity (11C, 5C) in the semi-finished component; (c) filling the at least one inner cavity (11C, 5C) of the semi-finished component with a bulk flowable material; (d) sealingly closing the at least one inner cavity (11C, 5C) filled with bulk flowable material; (e) densifying and solidifying the bulk flowable material in the at least one inner cavity. (a) producing by additive manufacturing a plurality of separate segments of the impeller, at least some of the separate segments having a skin surrounding at least one empty volume (11V, 5V) corresponding to a massive part of the impeller; (b) assembling the separate segments of the impeller together forming a semi-finished component, the empty volumes of the segments forming at least one inner cavity (11C, 5C) in the semi-finished component; (c) filling the at least one inner cavity (11C, 5C) of the semi-finished component with a bulk flowable material; (d) sealingly closing the at least one inner cavity (11C, 5C) filled with bulk flowable material; (e) densifying and solidifying the bulk flowable material in the at least one inner cavity.
Mixing process for mixing: - a load comprising used and/or deadline exceeding cooking oil, and - a load of a solidifying composition for processing the load; the process comprising the steps of: - supplying the load and / or the at least corresponding load to a mixing device, so as to obtain a respective mixture of supplied load (A, B); - supplying an initial thermal energy amount to the supplied load (A, B) until the mixture reaches an previously defined initial temperature (T ini) within a temperature level (N T) comprising a previously defined reference temperature (T M); - supplying an additional thermal energy amount to said mixture during a previously defined period of time (t M), at least so as to maintain a temperature reached by the mixture within the temperature level (N T), thereby obtaining a fusion mixture; and - discharging of the fusion mixture out of the mixing device. the process being characterized in that the supply of load begins after at least part of the load has been fully supplied, wherein the initial thermal energy amount is supplied to load until load reaches a previously defined initial temperature (T ini), comprised in the temperature level (N T) before the supply of load begins. - a load comprising used and/or deadline exceeding cooking oil, and - a load of a solidifying composition for processing the load; - supplying the load and / or the at least corresponding load to a mixing device, so as to obtain a respective mixture of supplied load (A, B); - supplying an initial thermal energy amount to the supplied load (A, B) until the mixture reaches an previously defined initial temperature (T ini) within a temperature level (N T) comprising a previously defined reference temperature (T M); - supplying an additional thermal energy amount to said mixture during a previously defined period of time (t M), at least so as to maintain a temperature reached by the mixture within the temperature level (N T), thereby obtaining a fusion mixture; and - discharging of the fusion mixture out of the mixing device.
A computer-implemented method of generating a data set that geometrically defines at least one bone cut configuration for transverse maxillary distraction, the method comprising: creating, based on patient-specific data of a maxilla, a numeric model representative of mechanic properties of the maxilla; determining, based on the numeric model thus generated, one or more cut configurations for one or more first bone cuts (300, 600) on at least one of a left hand side and a right hand side of the maxilla, wherein the one or more cut configurations are determined so as to compensate for asymmetric mechanic properties of the maxilla upon performing the transverse maxillary distraction, and wherein determining the one or more cut configurations comprises introducing the one or more first bone cuts (300, 600) in the numeric model, analyzing the resulting numeric model as to its mechanic properties upon distraction, and applying an iterative calculation procedure based on one or more optimization parameters, wherein, in each iteration, at least one new cut configuration is calculated, and a new numeric model is created based thereon for the next iteration; and generating a data set indicative of the one or more cut configurations. creating, based on patient-specific data of a maxilla, a numeric model representative of mechanic properties of the maxilla; determining, based on the numeric model thus generated, one or more cut configurations for one or more first bone cuts (300, 600) on at least one of a left hand side and a right hand side of the maxilla, wherein the one or more cut configurations are determined so as to compensate for asymmetric mechanic properties of the maxilla upon performing the transverse maxillary distraction, and wherein determining the one or more cut configurations comprises introducing the one or more first bone cuts (300, 600) in the numeric model, analyzing the resulting numeric model as to its mechanic properties upon distraction, and applying an iterative calculation procedure based on one or more optimization parameters, wherein, in each iteration, at least one new cut configuration is calculated, and a new numeric model is created based thereon for the next iteration; and generating a data set indicative of the one or more cut configurations.
Polyestercarbonate, comprising the structural formula in which A independently per repeating unit represents at least either structural unit or structural unit, where represents chemical formula and represents chemical formula where x represents a cycloalkylene group having 4 to 20, preferably 5 to 15 carbon atoms and where the polyestercarbonate always comprises the structural units and, y each independently represents chemical formula and 0 < x < 1, where the * in each case indicate the position at which the chemical formulae are incorporated into the polyestercarbonate, characterized in that the polyestercarbonate consists to an extent of 5 mol% to 30 mol%, preferably 7 mol% to 25 mol%, particularly preferably 9 mol% to 20 mol%, of the structural motif based on the total sum of the following structural motifs and A independently per repeating unit represents at least either structural unit or structural unit, where represents chemical formula and represents chemical formula where x represents a cycloalkylene group having 4 to 20, preferably 5 to 15 carbon atoms and where the polyestercarbonate always comprises the structural units and, represents chemical formula and represents chemical formula y each independently represents chemical formula and 0 < x < 1, where the * in each case indicate the position at which the chemical formulae are incorporated into the polyestercarbonate, characterized in that the polyestercarbonate consists to an extent of 5 mol% to 30 mol%, preferably 7 mol% to 25 mol%, particularly preferably 9 mol% to 20 mol%, of the structural motif based on the total sum of the following structural motifs and
Cooking appliance comprising at least one heatable cooking chamber, at least one cooking chamber door for closing a loading opening of the cooking chamber, and at least one ventilation opening for ventilating the cooking chamber, it being possible for at least one closure element to be moved into at least two positions (13, 23, 33) by at least one actuating device, comprising at least one first position for at least partially opening the ventilation opening and at least one second position for at least partially closing the ventilation opening, the first position being the position of the at least two positions (13, 23, 33) which releases the ventilation opening the furthest, the actuating device being suitable for and configured to move the closure element into at least one basic position when the cooking appliance is switched to a non-operational state and the closure element is in a position (13, 23, 33) other than the basic position, so that the closure element is arranged in the basic position at least when the cooking appliance is not in operation, and the closure element being moved into the basic position each time the device is switched off if it was previously in a different position, characterised in that the actuating device is suitable for and configured to move the closure element into at least three positions (13, 23, 33), including at least one intermediate position between the first position and the second position, in that at least one through opening is provided in the closure element, in that in the second position, the ventilation opening is completely covered by the closure element and in that in this position, the through opening is arranged in the region of the ventilation opening so that the closure element only partially closes the ventilation opening and a defined flow of air through the through opening is possible and in that in the intermediate position, the ventilation opening is completely covered by the closure element, the through opening being arranged in this position outside the ventilation opening, so that the closure element substantially completely closes the ventilation opening. the first position being the position of the at least two positions (13, 23, 33) which releases the ventilation opening the furthest, the actuating device being suitable for and configured to move the closure element into at least one basic position when the cooking appliance is switched to a non-operational state and the closure element is in a position (13, 23, 33) other than the basic position, so that the closure element is arranged in the basic position at least when the cooking appliance is not in operation, and the closure element being moved into the basic position each time the device is switched off if it was previously in a different position,
Method for manufacturing a carbon fibre from a manufactured paper product, characterised in that it comprises: a/ preparing a cellulose-based fibre, comprising successive steps of: a1/ grinding said paper product to obtain a ground paper material, a3/ directly dissolving the ground material obtained at the end of step a1/ in an aqueous phosphoric acid solution, to form a so-called spinning solution, a4/ from said spinning solution, manufacturing a cellulose-based continuous fibre by implementing a solvent spinning process, a5/ optionally, drawing the resulting cellulose-based continuous fibre, b/ and carbonising said cellulose-based continuous fibre to form a carbon fibre. a/ preparing a cellulose-based fibre, comprising successive steps of: a1/ grinding said paper product to obtain a ground paper material, a3/ directly dissolving the ground material obtained at the end of step a1/ in an aqueous phosphoric acid solution, to form a so-called spinning solution, a4/ from said spinning solution, manufacturing a cellulose-based continuous fibre by implementing a solvent spinning process, a5/ optionally, drawing the resulting cellulose-based continuous fibre, a1/ grinding said paper product to obtain a ground paper material, a3/ directly dissolving the ground material obtained at the end of step a1/ in an aqueous phosphoric acid solution, to form a so-called spinning solution, a4/ from said spinning solution, manufacturing a cellulose-based continuous fibre by implementing a solvent spinning process, a5/ optionally, drawing the resulting cellulose-based continuous fibre, b/ and carbonising said cellulose-based continuous fibre to form a carbon fibre.
An anhydrate crystalline form, which is Form 2 of compound of formula, characterized by having a powder-X-ray diffractogram displaying peaks expressed as degree 2-Theta angles at 9.5; 11.8; 14.1; 14.6; 17.7 and 18.5.
A method for monitoring a status of a media asset, the method comprising: detecting a change in the status of the media asset; determining that the media asset has not been locally recorded; and in response to the detecting and determining, alerting a user of the change in status, wherein alerting the user comprises enabling the user to view or record at least part of the media asset before the status change. detecting a change in the status of the media asset; determining that the media asset has not been locally recorded; and in response to the detecting and determining, alerting a user of the change in status, wherein alerting the user comprises enabling the user to view or record at least part of the media asset before the status change.
Process for preparing a set of inorganic particles by aerosol pyrolysis, comprising, without addition of swelling agent: nebulizing at a temperature between 10°C and 40°C a liquid solution containing a precursor of the inorganic material(s) from which one wishes to form particles at a molar concentration greater than or equal to 0.5 mol/L in the solution, so as to obtain a mist of droplets in solution, heating the obtained mist at a temperature between 150°C and 400°C capable of ensuring the evaporation of the solvent to increase the concentration of precursor of the inorganic material(s) at the periphery of the droplets and capable of ensuring the formation of particles for a duration comprised between 1 and 10 seconds, heating the particles obtained in step at a temperature between 400°C and 700°C, capable of ensuring the decomposition of the precursor to form the inorganic material with simultaneous precipitation and complete extraction of the solvent to form the shell of the hollow particles for a duration comprised between 10 and 30 seconds, densifying the obtained particles shell at a temperature between 200°C and 1000°C for a duration comprised between 20 and 30 seconds, optionally quenching the particles obtained, and recovering the particles thus formed, steps, and being performed at increasing temperatures. nebulizing at a temperature between 10°C and 40°C a liquid solution containing a precursor of the inorganic material(s) from which one wishes to form particles at a molar concentration greater than or equal to 0.5 mol/L in the solution, so as to obtain a mist of droplets in solution, heating the obtained mist at a temperature between 150°C and 400°C capable of ensuring the evaporation of the solvent to increase the concentration of precursor of the inorganic material(s) at the periphery of the droplets and capable of ensuring the formation of particles for a duration comprised between 1 and 10 seconds, heating the particles obtained in step at a temperature between 400°C and 700°C, capable of ensuring the decomposition of the precursor to form the inorganic material with simultaneous precipitation and complete extraction of the solvent to form the shell of the hollow particles for a duration comprised between 10 and 30 seconds, densifying the obtained particles shell at a temperature between 200°C and 1000°C for a duration comprised between 20 and 30 seconds, optionally quenching the particles obtained, and recovering the particles thus formed, steps, and being performed at increasing temperatures.
A radial vane for a toothbrush, comprising: a disk-shape portion; a through hole formed at a center part of the disk-shaped portion, to be penetrated by a tip portion of a handle of the toothbrush; a weld portion in an annular shape provided around the through hole; and a plurality of bristle members extending outward from the weld portion in a radial direction of the disk-shape, the weld portion including a protrusion integrally formed on one or both of surfaces thereof. a disk-shape portion; a through hole formed at a center part of the disk-shaped portion, to be penetrated by a tip portion of a handle of the toothbrush; a weld portion in an annular shape provided around the through hole; and a plurality of bristle members extending outward from the weld portion in a radial direction of the disk-shape, the weld portion including a protrusion integrally formed on one or both of surfaces thereof.
A method of controlling an electric motor generating a force driving a vehicle, comprising the steps of: measuring a motor temperature; when the motor temperature exceeds a preset threshold temperature value (Tth), limiting a torque of said electric motor; characterized by after the step of limiting is started, alleviating said limiting of the torque and controlling the torque of said electric motor to be constant for a predetermined period of time in accordance with a state of the vehicle, wherein said predetermined period of time is a period of time preset as a time allowing a driver of said vehicle to handle a state of said vehicle caused by said limiting of said torque. measuring a motor temperature; when the motor temperature exceeds a preset threshold temperature value (Tth), limiting a torque of said electric motor; characterized by after the step of limiting is started, alleviating said limiting of the torque and controlling the torque of said electric motor to be constant for a predetermined period of time in accordance with a state of the vehicle, wherein said predetermined period of time is a period of time preset as a time allowing a driver of said vehicle to handle a state of said vehicle caused by said limiting of said torque.
A weir-type diaphragm valve, comprising: a valve body configured with fluid flow channels (11a, 11b) for passing fluid through the weir-type diaphragm valve, configured with a weir having a spherically-shaped weir sealing surface; and also configured with a circular rim; and a diaphragm configured with a diaphragm weir sealing surface and also configured to respond to an applied force and provide sealing contact between the diaphragm weir sealing surface and the spherically-shaped weir sealing surface so as to stop the flow of fluid passing through the fluid flow channels (11a; 11b) of the valve body, wherein the circular rim has a spherically-shaped peripheral sealing surface; wherein the diaphragm is configured with a diaphragm peripheral sealing surface, and is also configured to respond to an applied force and provide corresponding sealing contact between the diaphragm peripheral sealing surface and the spherically-shaped peripheral sealing surface so as to prevent leaking of the fluid from the valve body via a shell leak path; characterized by the spherically-shaped weir sealing surface and the spherically-shaped peripheral sealing surface having polish marks, wherein the polish marks on the spherically-shaped weir sealing surface are substantially perpendicular to a weir leak path, and many of the polish marks on the spherically-shaped peripheral sealing surface are substantially perpendicular to a shell leak path. a valve body configured with fluid flow channels (11a, 11b) for passing fluid through the weir-type diaphragm valve, configured with a weir having a spherically-shaped weir sealing surface; and also configured with a circular rim; and a diaphragm configured with a diaphragm weir sealing surface and also configured to respond to an applied force and provide sealing contact between the diaphragm weir sealing surface and the spherically-shaped weir sealing surface so as to stop the flow of fluid passing through the fluid flow channels (11a; 11b) of the valve body,
Frame foot for fastening frames and/or cabinets in a rail vehicle, having - a support frame which can be attached to a fastening wall of the rail vehicle and which has a plateau which extends parallel to the fastening wall when in a mounted position, - a through-passage incorporated into the plateau, - an adjustment section arranged in the through-passage, which is displaced in the height direction for tolerance compensation until the height of the frame foot which is correct for the mounting of a frame or cabinet is achieved, and which is subsequently welded to establish a fixed connection to the plateau, - an oblong hole formed in the adjustment section and - connection means which are movably arranged in the oblong hole and configured to connect to the cabinets and/or frames provided for mounting. - a support frame which can be attached to a fastening wall of the rail vehicle and which has a plateau which extends parallel to the fastening wall when in a mounted position, - a through-passage incorporated into the plateau, - an adjustment section arranged in the through-passage, which is displaced in the height direction for tolerance compensation until the height of the frame foot which is correct for the mounting of a frame or cabinet is achieved, and which is subsequently welded to establish a fixed connection to the plateau, - an oblong hole formed in the adjustment section and - connection means which are movably arranged in the oblong hole and configured to connect to the cabinets and/or frames provided for mounting.