mhurhangee/ep-ind-claims huggingface dataset:
A method to determine a need for calibration of sensing instruments, comprising: (a) installing at least one first sensing instrument to sense at least one critical value in a process flow; (b) installing at least one second sensing instrument to sense at least one critical value in the process flow; characterised by (c) tracking over time relative consistency of data obtained from said first sensing instrument and data obtained from said second sensing instrument via at least one statistical control chart; and (d) upon detection from data values from said first sensing instrument and said second instrument that the two data values of the two sensing instruments are drifting apart over time, determining which instrument is drifting as a function of the relative change in the individual instruments change in standard deviation, wherein upon detecting that said two values are drifting apart in step (d), using at least one process alarm management system to alarm an operator that said first sensing instrument and/or said second sensing instrument is statistically drifting apart. (a) installing at least one first sensing instrument to sense at least one critical value in a process flow; (b) installing at least one second sensing instrument to sense at least one critical value in the process flow; characterised by (c) tracking over time relative consistency of data obtained from said first sensing instrument and data obtained from said second sensing instrument via at least one statistical control chart; and (d) upon detection from data values from said first sensing instrument and said second instrument that the two data values of the two sensing instruments are drifting apart over time, determining which instrument is drifting as a function of the relative change in the individual instruments change in standard deviation,
An electrical or electronic device with a housing, which comprises a rear wall and a side wall peripherally surrounding the rear wall, the housing containing a first region and a second region and the first region comprising a shielding from the second region with respect to electromagnetic compatibility EMC, the housing comprising a stepped projection on an inner side of the side wall and/or of the rear wall, wherein the stepped projection is an integral part of the side wall or of the housing, respectively, the shielding for electromagnetic compatibility comprising a shielding plate, by means of which the first region is delimited from the second region, and an electrical connection of the shielding plate to the side wall and/or to the rear wall being formed in that a peripheral region that delimits the shielding plate areally overlaps the stepped projection, at least along most of its length, and is fastened on it, wherein the rear wall of the housing forms both a base area of the first region and a base area of the second region, at least part of the shielding plate lying flat on the rear wall and thereby electrically contacting the rear wall directly, or wherein a metal plate running above the rear wall in the housing forms both a base area of the first region and a base area of the second region, and at least part of the shielding plate lying flat on the metal plate and thereby electrically contacting the metal plate directly. the housing containing a first region and a second region and the first region comprising a shielding from the second region with respect to electromagnetic compatibility EMC, the housing comprising a stepped projection on an inner side of the side wall and/or of the rear wall, wherein the stepped projection is an integral part of the side wall or of the housing, respectively, the shielding for electromagnetic compatibility comprising a shielding plate, by means of which the first region is delimited from the second region, and an electrical connection of the shielding plate to the side wall and/or to the rear wall being formed in that a peripheral region that delimits the shielding plate areally overlaps the stepped projection, at least along most of its length, and is fastened on it, wherein the rear wall of the housing forms both a base area of the first region and a base area of the second region, at least part of the shielding plate lying flat on the rear wall and thereby electrically contacting the rear wall directly, or wherein a metal plate running above the rear wall in the housing forms both a base area of the first region and a base area of the second region, and at least part of the shielding plate lying flat on the metal plate and thereby electrically contacting the metal plate directly.
Device for treating water which comprises a main canalisation which mainly consists of a supply for the water to be treated; a treatment tank which is provided with a treatment medium; a pipe which connects the supply to the inlet of the treatment tank and which is provided with a valve; a drain; a pipe which connects the outlet of the treatment tank to the above-mentioned drain; and a regulator, characterised in that this device also comprises a bypass which is provided with a valve and which connects the above-mentioned supply to the drain, whereby in the main canalisation are provided a first shut-off valve and a second shut-off valve which are placed on either side of the regulator; in that the device comprises a first shunt canalisation which bridges the above-mentioned first shut-off valve and the regulator, and comprises a second shunt canalisation which bridges the above-mentioned regulator and the second shut-off valve, whereby the first shunt canalisation and the second shunt canalisation each comprise a shut-off valve (19, 21), and whereby the first and the second shut-off valve (12,14) are open during the treatment phase and are closed during the rinse or regeneration phase, whereas the other shut-off valves (19 and 21) are open during the rinse or regeneration phase and closed during the treatment phase.
An integrity monitoring system for monitoring integrity of at least a part of a stationary structure (1, 11, 21, 21a, 21b, 31a, 31b, 41, 49a, 49b, 51, 61, 69), the system comprising at least one vibration sensor (2, 12, 22, 22a, 22b, 32a, 32b, 32c, 42a, 42b, 42c, 52, 62) adapted to sense vibration as a function of time, a computer (3, 13, 23, 23, 23, 33), transmitting means adapted to transmit vibration data from the at least one vibration sensor (2, 12, 22, 22a, 22b, 32a, 32b, 32c, 42a, 42b, 42c, 52, 62) to the computer (3, 13, 23, 23, 23, 33), means adapted to acquire and transmit position as a function of time data of a movable object (4a, 4b, 24a, 24b, 34, 44, 54, 64a, 64b) to said computer (3, 13, 23, 23, 23, 33) when said movable object (4a, 4b, 24a, 24b, 34, 44, 54, 64a, 64b) comprises a transmitter (5, 25a, 25b, 35, 55) and is within a selected distance (6a, 6b, SD) to a monitoring site, where the monitoring site comprises at least a part of the stationary structure (1, 11, 21, 21a, 21b, 31a, 31b, 41, 49a, 49b, 51, 61, 69) and the at least one vibration sensor (2, 12, 22, 22a, 22b, 32a, 32b, 32c, 42a, 42b, 42c, 52, 62) is arranged to sense vibrations within said monitoring site, and said at least one vibration sensor is adapted to transmit said vibration data to the computer (3, 13, 23, 23, 23, 33) as vibration as a function of time data or the computer (3, 13, 23, 23, 23, 33) is adapted to generate vibration as a function of time data from said vibration data, characterised in that the computer (3, 13, 23, 23, 23, 33) comprises hardware and is programmed for comparing the vibration as a function of time data with the position as a function of time data correlated to same time, preferably the stationary structure (1, 11, 21, 21a, 21b, 31a, 31b, 41, 49a, 49b, 51, 61, 69) is a substantially fixed structure, the structure (1, 11, 21, 21a, 21b, 31a, 31b, 41, 49a, 49b, 51, 61, 69) is preferably applied stationary by being a submarine structure (11, 21b, 31b laid on the seabed or buried and/or by being a trenched submarine structure (31b, 51).
Method for automatic determination of a quantitative composition of a powder sample, having different phase contents of crystalline and/or amorphous phases, from a diffraction diagram recorded by diffractometry from the powder sample or from an energy-dispersive spectrum, the method comprising the steps of: (a) predetermining a list of phases which are to be allocated to the phase contents in the powder sample; (b) calculating a theoretical diffraction diagram or theoretical energy-dispersive spectrum based on the phases predetermined in the list of step (a); (c) fitting the theoretical diffraction diagram or theoretical energy-dispersive spectrum to that of a recorded powder sample by variation of the phase contents of the theoretical diffraction diagram or theoretical energy-dispersive spectrum, characterized in that in step (a) a list is predetermined which comprises phases that are actually contained in the powder sample as well as phases that may not be contained in the powder sample, a threshold phase content value is set for each phase, and that the following further steps are carried out: (d) eliminating all phases having phase contents which are below the threshold value from the list of step (a); (e) repeating steps (b), (c) and (d) with the new list until all phase contents are above predetermined threshold values thereof; and (f) outputting the composition of the powder sample with remaining phases and associated phase contents thereof. (a) predetermining a list of phases which are to be allocated to the phase contents in the powder sample; (b) calculating a theoretical diffraction diagram or theoretical energy-dispersive spectrum based on the phases predetermined in the list of step (a); (c) fitting the theoretical diffraction diagram or theoretical energy-dispersive spectrum to that of a recorded powder sample by variation of the phase contents of the theoretical diffraction diagram or theoretical energy-dispersive spectrum, characterized in that in step (a) a list is predetermined which comprises phases that are actually contained in the powder sample as well as phases that may not be contained in the powder sample, a threshold phase content value is set for each phase, and that the following further steps are carried out: (d) eliminating all phases having phase contents which are below the threshold value from the list of step (a); (e) repeating steps (b), (c) and (d) with the new list until all phase contents are above predetermined threshold values thereof; and (f) outputting the composition of the powder sample with remaining phases and associated phase contents thereof.
A 3D print component (1; 1 '; 1") out of plastic or metal, which is produced with the help of layering by melting, such as Fused Deposition Modeling "FDM" or Fused Filament Fabrication "FFF", or ARBURG plastic free forming "AKF", as a known 3D printing method, and which comprises the following features: a. a component body with a receiving space, which is enclosed by a surrounding limiting wall and in which a connecting component is firmly arranged, with the connecting component being a thread insert, a thread bushing, a bayonet locking or a female latching component and is connectable through at least an opening of the limiting wall with a connecting element outside of the 3D print component (1; 1'; 1"), b. the receiving space comprises a 3D printed inner contour which is configured non-rotation symmetrically, at least partly adapted to an adjacent side of the connecting component so that the connecting component is retained in the receiving space in a form-fit manner, and c. on at least one side, the limiting wall of the receiving space consists of a separate wall element (50; 50'; 50") which directly delimits the receiving space, is overprinted by means of 3D print and integrated in the limiting wall as well as attached on the connecting component within the receiving space in order to not block or damage an existing opening in the connecting component by the overprinting by means of 3D print. a. a component body with a receiving space, which is enclosed by a surrounding limiting wall and in which a connecting component is firmly arranged, with the connecting component being a thread insert, a thread bushing, a bayonet locking or a female latching component and is connectable through at least an opening of the limiting wall with a connecting element outside of the 3D print component (1; 1'; 1"), b. the receiving space comprises a 3D printed inner contour which is configured non-rotation symmetrically, at least partly adapted to an adjacent side of the connecting component so that the connecting component is retained in the receiving space in a form-fit manner, and c. on at least one side, the limiting wall of the receiving space consists of a separate wall element (50; 50'; 50") which directly delimits the receiving space, is overprinted by means of 3D print and integrated in the limiting wall as well as attached on the connecting component within the receiving space in order to not block or damage an existing opening in the connecting component by the overprinting by means of 3D print.
A method for wireless communications, comprising: receiving a scrambled downlink reference signal; evaluating a first subframe to determine a cyclic prefix length for the first subframe and possible cyclic prefix lengths for remaining subframes, wherein a dynamic broadcast channel in a subframe provides the cyclic prefix lengths of the remaining subframes; determining (504; 506) a pseudo-random sequence, PRS, corresponding to a combination of received primary and secondary synchronization codes, PSC/SSC, wherein the primary and secondary synchronization codes are received in a disparate signal from a transmitter; and descrambling a portion of subframes of the scrambled downlink reference signal according to the pseudo-random sequence and the determined cyclic prefix length for one or more subframes of the portion of subframes, wherein the descrambling is performed over subframes with the determined cyclic prefix length above a specified threshold. receiving a scrambled downlink reference signal; evaluating a first subframe to determine a cyclic prefix length for the first subframe and possible cyclic prefix lengths for remaining subframes, wherein a dynamic broadcast channel in a subframe provides the cyclic prefix lengths of the remaining subframes; determining (504; 506) a pseudo-random sequence, PRS, corresponding to a combination of received primary and secondary synchronization codes, PSC/SSC, wherein the primary and secondary synchronization codes are received in a disparate signal from a transmitter; and descrambling a portion of subframes of the scrambled downlink reference signal according to the pseudo-random sequence and the determined cyclic prefix length for one or more subframes of the portion of subframes, wherein the descrambling is performed over subframes with the determined cyclic prefix length above a specified threshold.
A non-destructive, viability retaining method of sampling an immature plant embryo, comprising the steps of: removing a tissue sample comprising at least a portion of the scutellum of the plant embryo; wherein the obtained cellular content via tissue sampling is subjected to genetic, chemical or biochemical analysis, and wherein the extracted embryos are put into stasis storage to achieve a quiescent condition until the outcome of the genetic, chemical or biochemical analysis is known.
A monolithic metallic thermo-mechanical structure adapted for a space environment, comprising at least one hole, characterised in that said hole comprises walls (Ibis) covered with filaments.
A high flow rate, transportable, ultra high purity gas vaporization and supply system (10; 10'), comprising: (a) a vessel (20; 20') suitable for carrying large quantities of a liquefied gas; (b) a plurality of valves adapted to operate with liquid or gas phases; (c) a loading/unloading unit (30; 30') disposed on said vessel for loading and unloading the liquefied gas to be supplied; (d) at least one heater (50; 50') containing a plurality of heating elements (54A, 54B... 54n; 54A', 54B'... 54n') to supply energy into the liquefied gas, said heater (50; 50') adapted to cause said liquefied gas to be supplied through said loading/unloading unit as a gas; and (e) a heater controller (60; 60') adapted to use process variables feedback for regulating said heating elements (54A, 54B... 54n; 54A', 54B'... 54n') maintaining and regulating gas output; characterized in that (f) the vessel (20; 20') is covered with thermal vessel insulation (26; 26') and cladding (28; 28'); and (g) said heating elements (54A, 54B... 54n; 54A', 54B'... 54n') are permanently positioned on said vessel (20; 20'), namely permanently attached to an outer surface (23; 23') of the vessel (20; 20') and positioned between the outer surface (23; 23') and the vessel insulation (26; 26'). (a) a vessel (20; 20') suitable for carrying large quantities of a liquefied gas; (b) a plurality of valves adapted to operate with liquid or gas phases; (c) a loading/unloading unit (30; 30') disposed on said vessel for loading and unloading the liquefied gas to be supplied; (d) at least one heater (50; 50') containing a plurality of heating elements (54A, 54B... 54n; 54A', 54B'... 54n') to supply energy into the liquefied gas, said heater (50; 50') adapted to cause said liquefied gas to be supplied through said loading/unloading unit as a gas; and (e) a heater controller (60; 60') adapted to use process variables feedback for regulating said heating elements (54A, 54B... 54n; 54A', 54B'... 54n') maintaining and regulating gas output; (f) the vessel (20; 20') is covered with thermal vessel insulation (26; 26') and cladding (28; 28'); and (g) said heating elements (54A, 54B... 54n; 54A', 54B'... 54n') are permanently positioned on said vessel (20; 20'), namely permanently attached to an outer surface (23; 23') of the vessel (20; 20') and positioned between the outer surface (23; 23') and the vessel insulation (26; 26').
A system comprising: a generator to generate electromagnetic signals; and a rotational device configured to operate within a wellbore, the rotational device comprising an antenna to direct the EM signals to a formation to increase a temperature of the formation from a first temperature to a second temperature, wherein the EM signals comprise at least one of microwaves, radio frequency signals, infrared signals, ultraviolet signals, and X-rays, characterised in that: the rotational device comprises multiple sides, the antenna being on a first side of the multiple sides, and the rotational device further comprises a purging system to apply a cooling agent to the formation to cause the temperature of the formation to decrease from the second temperature to a third temperature, thereby creating fractures in the formation, the purging system being on a second side of the multiple sides, wherein the second side faces a different direction to the first side. a generator to generate electromagnetic signals; and a rotational device configured to operate within a wellbore, the rotational device comprising an antenna to direct the EM signals to a formation to increase a temperature of the formation from a first temperature to a second temperature, wherein the EM signals comprise at least one of microwaves, radio frequency signals, infrared signals, ultraviolet signals, and X-rays, characterised in that: the rotational device comprises multiple sides, the antenna being on a first side of the multiple sides, and the rotational device further comprises a purging system to apply a cooling agent to the formation to cause the temperature of the formation to decrease from the second temperature to a third temperature, thereby creating fractures in the formation, the purging system being on a second side of the multiple sides, wherein the second side faces a different direction to the first side. the rotational device comprises multiple sides, the antenna being on a first side of the multiple sides, and the rotational device further comprises a purging system to apply a cooling agent to the formation to cause the temperature of the formation to decrease from the second temperature to a third temperature, thereby creating fractures in the formation, the purging system being on a second side of the multiple sides, wherein the second side faces a different direction to the first side.
A method for identifying a user operation mode on a handheld device, comprising: when it is detected that a finger of a user slides on a screen of a handheld device, acquiring sliding information of the finger of the user in a sliding process; and identifying an operation mode of the user according to the sliding information of the finger of the user in the sliding process, wherein the operation mode comprises a left-hand operation mode and a right-hand operation mode: characterised in that the sliding information of the finger of the user in the sliding process comprises a change situation of a sliding acceleration of the finger of the user in the sliding process. when it is detected that a finger of a user slides on a screen of a handheld device, acquiring sliding information of the finger of the user in a sliding process; and identifying an operation mode of the user according to the sliding information of the finger of the user in the sliding process, wherein the operation mode comprises a left-hand operation mode and a right-hand operation mode: characterised in that the sliding information of the finger of the user in the sliding process comprises a change situation of a sliding acceleration of the finger of the user in the sliding process.
A process for producing thermoplastic polyoxazolidinone, comprising the following steps: (i) Reaction of a diisocyanate compound with a bisepoxide compound in the presence of a catalyst and a compound in a solvent forming an intermediate compound (ii) Reaction of a compound with the intermediate formed in step (i), wherein the bisepoxide compound comprises isosorbide diglycidylether, wherein compound is one or more compounds selected from the group consisting of monofunctional isocyanate and monofunctional epoxide, and wherein compound is an alkylene oxide. (i) Reaction of a diisocyanate compound with a bisepoxide compound in the presence of a catalyst and a compound in a solvent forming an intermediate compound (ii) Reaction of a compound with the intermediate formed in step (i), wherein compound is one or more compounds selected from the group consisting of monofunctional isocyanate and monofunctional epoxide, and wherein compound is an alkylene oxide.
An aqueous pigment dispersion liquid for inkjet comprising 5 to 35 mass% of a pigment, 0.5 to 25 mass% of a pigment dispersant, 5 to 30 mass% of an aqueous organic solvent having miscibility with water, and 20 to 80 mass% of water, wherein the pigment dispersant is at least any one of a graft copolymer in which a polymer chain A is grafted onto a polymer chain B and a block copolymer in which one end of the polymer chain A is linked to one end of the polymer chain B; the polymer chain A comprises 20 to 60 mass% in the graft copolymer and 30 to 60 mass% in the block copolymer of a constituent unit derived from a first cycloalkyl group-containing (meth)acrylate, 10 to 35 mass% of a constituent unit derived from (meth)acrylic acid, and 5 to 70 mass% of a constituent unit derived from another (meth)acrylate, and the polymer chain A has a number average molecular weight of 1,000 to 10,000; the polymer chain B comprises at least any one of a constituent unit derived from a second cycloalkyl group-containing (meth)acrylate and a constituent unit derived from a vinyl monomer or (meth)acrylate having an aromatic ring; a mass ratio of the polymer chain A to the polymer chain B satisfies A:B = 30 to 70:70 to 30; and the graft copolymer and the block copolymer have a number average molecular weight of 2,000 to 20,000.