mhurhangee/patent-ind-claim-en huggingface dataset:
A method for characterizing the quality of an X-ray beam comprising a known profile of dose deposit in a body having a zone of increasing (Z a1 , Z a2 ) dose rate inside said body extending between the input surface of the beam and a characteristic depth ( P max ) where the deposited dose rate is maximal, the method comprising the following steps: - providing a monolithic detector integrating m junctions p-n stacked (m ≥ 3) depthwise of said detector with at least three junctions distributed in the zone of increasing dose rate; - projecting said X-ray beam onto the monolithic detector; - retrieving the m signals ( r ) delivered by the junctions p-n of the detector; - and processing the m signals ( r ) for characterizing the quality of the X-ray beam. - providing a monolithic detector integrating m junctions p-n stacked (m ≥ 3) depthwise of said detector with at least three junctions distributed in the zone of increasing dose rate; - projecting said X-ray beam onto the monolithic detector; - retrieving the m signals ( r ) delivered by the junctions p-n of the detector; - and processing the m signals ( r ) for characterizing the quality of the X-ray beam.
A method for estimating a level of damage to perishable cargo during transportation of the cargo using data collected by a portable monitoring device , the method comprising: receiving an input indicative of a frequency range; measuring vibrational data occurring within the frequency range, the vibrational data associated with the cargo, the vibrational data monitored by an accelerometer of the portable monitoring device ; incrementing a counter value of a counter in the portable monitoring device in response to an amplitude of the measured vibrational data occurring within the frequency range exceeding a predetermined threshold; determining if a counter value of the counter exceeds a predetermined value; and generating an alert indicating damage to the cargo in response to determining the counter value has exceeded the predetermined value. receiving an input indicative of a frequency range; measuring vibrational data occurring within the frequency range, the vibrational data associated with the cargo, the vibrational data monitored by an accelerometer of the portable monitoring device ; incrementing a counter value of a counter in the portable monitoring device in response to an amplitude of the measured vibrational data occurring within the frequency range exceeding a predetermined threshold; determining if a counter value of the counter exceeds a predetermined value; and generating an alert indicating damage to the cargo in response to determining the counter value has exceeded the predetermined value.
A method for regenerating a catalytic article used to treat exhaust gas comprising: (a) flowing an exhaust gas through a substrate having an oxidation catalyst, wherein the exhaust gas contains SO x prior to entering the substrate, and wherein the oxidation catalyst comprises a noble metal on a WO 3 -TiO 2 support, wherein the support contains 1 to 20 weight percent WO 3 based on the combined weight of the WO 3 and TiO 2 ; (b) absorbing at least a portion of the SO x in the catalyst layer; and (c) regenerating the catalyst either (i) after the catalyst layer adsorbs at least 5 g/L of the SO x or (ii) at a temperature of not greater than 350 °C. (a) flowing an exhaust gas through a substrate having an oxidation catalyst, wherein the exhaust gas contains SO x prior to entering the substrate, and wherein the oxidation catalyst comprises a noble metal on a WO 3 -TiO 2 support, wherein the support contains 1 to 20 weight percent WO 3 based on the combined weight of the WO 3 and TiO 2 ; (b) absorbing at least a portion of the SO x in the catalyst layer; and (c) regenerating the catalyst either (i) after the catalyst layer adsorbs at least 5 g/L of the SO x or (ii) at a temperature of not greater than 350 °C.
An apparatus for recognizing media, comprising: an image sensor configured to emit different first light source and second light source to media including at least one character to acquire a first image and a second image corresponding to each light source: wherein the first light source and the second light source have at least one of an irradiation angle, a waveform, transmitted light, reflected light, and a disposed position which are different from each other; characterised by : a noise detector configured to detect noise of a region in which the character is included from the first image and the second image; a controller configured to combine the first image and the second image depending on the detected noise information to recognize the character included in the media; and wherein the controller recognizes the character included in the media based on character recognition information of a noise undetected image, if the noise is detected from any one of the first image and the second image. a noise detector configured to detect noise of a region in which the character is included from the first image and the second image; a controller configured to combine the first image and the second image depending on the detected noise information to recognize the character included in the media; and wherein the controller recognizes the character included in the media based on character recognition information of a noise undetected image, if the noise is detected from any one of the first image and the second image.
A signal detection device which detects a signal generated from a subject, the device comprising a laminated structure of: a first circuit layer in which a plurality of electrodes brought into contact with the subject is formed; a second circuit layer in which a plurality of amplifiers having an input portion capacitively coupled to the plurality of electrodes, respectively, is formed; and a third circuit layer in which a plurality of transistors for reading outputs of the plurality of amplifiers is formed, wherein an insulating layer which seals the second circuit layer is formed between the plurality of electrodes formed in the first circuit layer and the second circuit layer, and the plurality of electrodes and the input portions of the plurality of amplifiers are capacitively coupled to each other through the insulating layer, characterised in that the first circuit layer and the second circuit layer, the second circuit layer and the third circuit layer are electrically connected through an anisotropic conductive sheet. a first circuit layer in which a plurality of electrodes brought into contact with the subject is formed; a second circuit layer in which a plurality of amplifiers having an input portion capacitively coupled to the plurality of electrodes, respectively, is formed; and a third circuit layer in which a plurality of transistors for reading outputs of the plurality of amplifiers is formed, wherein an insulating layer which seals the second circuit layer is formed between the plurality of electrodes formed in the first circuit layer and the second circuit layer, and the plurality of electrodes and the input portions of the plurality of amplifiers are capacitively coupled to each other through the insulating layer, characterised in that the first circuit layer and the second circuit layer, the second circuit layer and the third circuit layer are electrically connected through an anisotropic conductive sheet.
Method of removing chloride from wastewater from a fertilizer plant comprising: a. Directing the chloride containing wastewater from the fertilizer plant to an electrochemical cell; b. converting chloride to chlorine gas by electrolysis; and c. Removing the chlorine gas formed in step b and increasing the mass transfer within the electrochemical cell, wherein the mass transfer is increased by mechanical stirring of the electrolyte, vibrating the electrodes, rotating the electrodes, ultrasonicating the electrode or electrolyte, or inert mesh turbulence promoters, or electrolyte jetting. a. Directing the chloride containing wastewater from the fertilizer plant to an electrochemical cell; b. converting chloride to chlorine gas by electrolysis; and c. Removing the chlorine gas formed in step b and increasing the mass transfer within the electrochemical cell, wherein the mass transfer is increased by mechanical stirring of the electrolyte, vibrating the electrodes, rotating the electrodes, ultrasonicating the electrode or electrolyte, or inert mesh turbulence promoters, or electrolyte jetting.
A method, comprising: receiving, by a first device deployed within an enterprise network and from a second device deployed outside the enterprise network, via a restricted access-controlled network path between the first device and the second device, a rule identifying a computing system condition and a criterion referencing the computing system condition; monitoring, by the first device, the computing system condition; determining, by the first device and based on the monitoring, that the criterion is met; installing or removing software at a network component of a plurality of network components of the enterprise network based on the determining, wherein the first device is communicatively coupled to the network component via the enterprise network; and providing, by the first device to the second device, via the restricted access-controlled network path, an indication of the installation or removal. receiving, by a first device deployed within an enterprise network and from a second device deployed outside the enterprise network, via a restricted access-controlled network path between the first device and the second device, a rule identifying a computing system condition and a criterion referencing the computing system condition; monitoring, by the first device, the computing system condition; determining, by the first device and based on the monitoring, that the criterion is met; installing or removing software at a network component of a plurality of network components of the enterprise network based on the determining, wherein the first device is communicatively coupled to the network component via the enterprise network; and providing, by the first device to the second device, via the restricted access-controlled network path, an indication of the installation or removal.
A gas compressing system comprising: a compressor operable to provide a flow of compressed gas and water vapor ; a first desiccant tower including a first quantity of desiccant ; a second desiccant tower separate from the first desiccant tower and including a second quantity of desiccant ; a first moisture separator ; a second moisture separator separate from the first moisture separator ; a dry gas outlet; a first set of no more than three valves each movable between an open position and a closed position; and a second set of no more than three valves each movable between an open position and a closed position, wherein the flow of compressed gas and water vapor flows along a flow path in order from the compressor to the first desiccant tower , to the first moisture separator , to the second desiccant tower and out the dry gas outlet when each of the valves of the first set of valves is open and each valve of the second set of valves is closed, and wherein the flow of compressed gas and water vapor flows in order from the compressor to the second desiccant tower , to the second moisture separator , to the first desiccant tower and out the dry gas outlet when each of the valves of the first set of valves is closed and each valve of the second set of valves is opened. a compressor operable to provide a flow of compressed gas and water vapor ; a first desiccant tower including a first quantity of desiccant ; a second desiccant tower separate from the first desiccant tower and including a second quantity of desiccant ; a first moisture separator ; a second moisture separator separate from the first moisture separator ; a dry gas outlet; a first set of no more than three valves each movable between an open position and a closed position; and a second set of no more than three valves each movable between an open position and a closed position, wherein the flow of compressed gas and water vapor flows along a flow path in order from the compressor to the first desiccant tower , to the first moisture separator , to the second desiccant tower and out the dry gas outlet when each of the valves of the first set of valves is open and each valve of the second set of valves is closed, and wherein the flow of compressed gas and water vapor flows in order from the compressor to the second desiccant tower , to the second moisture separator , to the first desiccant tower and out the dry gas outlet when each of the valves of the first set of valves is closed and each valve of the second set of valves is opened.
A battery pack (2; 402; 602) comprising an outer case (12; 412; 612), which comprises an upper-part case (14; 414) and a lower-part case (15; 415) fixed to the upper-part case (14; 414), a cell case (80; 480; 780; 980), which is housed in the outer case (12; 412; 612), a plurality of battery cells (90a-90j) housed in the cell case (80; 480; 780; 980), and a plurality of lead plates (92a-92k) connected to the battery cells (90a-90j) and disposed spaced apart from one another in a direction orthogonal to a longitudinal direction of the battery cells (90a-90j), wherein an engaging part is provided on one of the upper-part case (14; 414) and the cell case (80; 480; 780; 980), an engaged part , with which the engaging part engages, is provided on or in the other of the upper-part case (14; 414) and the cell case (80; 480; 780; 980), and the one of the engaging part or the engaged part that is provided on the cell case (80; 480; 780; 980) is provided between two adjacent ones of the lead plates (92a-92k). an outer case (12; 412; 612), which comprises an upper-part case (14; 414) and a lower-part case (15; 415) fixed to the upper-part case (14; 414), a cell case (80; 480; 780; 980), which is housed in the outer case (12; 412; 612), a plurality of battery cells (90a-90j) housed in the cell case (80; 480; 780; 980), and a plurality of lead plates (92a-92k) connected to the battery cells (90a-90j) and disposed spaced apart from one another in a direction orthogonal to a longitudinal direction of the battery cells (90a-90j), wherein an engaging part is provided on one of the upper-part case (14; 414) and the cell case (80; 480; 780; 980), an engaged part , with which the engaging part engages, is provided on or in the other of the upper-part case (14; 414) and the cell case (80; 480; 780; 980), and the one of the engaging part or the engaged part that is provided on the cell case (80; 480; 780; 980) is provided between two adjacent ones of the lead plates (92a-92k).
A method of predicting drilling assembly performance , comprising: a) acquiring measurements of electromagnetic (EM) radiation emitted due to destruction of formation materials by a drilling assembly during a drilling operation , the acquired measurements of EM radiation emitted due to destruction of formation materials being indicative of the type of the formation materials, wherein EM radiation measurements are obtained using a first sensor configured to measure a low frequency component of the EM radiation, a second sensor configured to measure a medium frequency component of the EM radiation, and a third sensor configured to measure a high frequency component of the EM radiation; b) selecting input parameters , including the acquired measurements of EM radiation; c) supplying the input parameters to a mathematical drillability model; d) generating a rock drillability parameter using the drillability model and the input parameters, the rock drillability parameter providing an indication of drilling performance; e) selecting operating conditions for at least one of the drilling operation and a subsequent drilling operation based on the drillability model; and f) performing at least one of the drilling operation and the subsequent drilling operation; wherein the steps a), b), c), d) and e) are computer-implemented. a) acquiring measurements of electromagnetic (EM) radiation emitted due to destruction of formation materials by a drilling assembly during a drilling operation , the acquired measurements of EM radiation emitted due to destruction of formation materials being indicative of the type of the formation materials, wherein EM radiation measurements are obtained using a first sensor configured to measure a low frequency component of the EM radiation, a second sensor configured to measure a medium frequency component of the EM radiation, and a third sensor configured to measure a high frequency component of the EM radiation; b) selecting input parameters , including the acquired measurements of EM radiation; c) supplying the input parameters to a mathematical drillability model; d) generating a rock drillability parameter using the drillability model and the input parameters, the rock drillability parameter providing an indication of drilling performance; e) selecting operating conditions for at least one of the drilling operation and a subsequent drilling operation based on the drillability model; and f) performing at least one of the drilling operation and the subsequent drilling operation; wherein the steps a), b), c), d) and e) are computer-implemented.
A three-dimensionally formed object manufacturing apparatus comprising: an ejecting portion configured to eject a fluid material including particles, which can form a constituent material of a three-dimensionally formed object, and a solvent; a stage on which a layer formed of the fluid material, which is ejected from the ejecting portion, can be laminated; a drying portion configured to volatilize the solvent included in the fluid material of the stage; characterized by an obtaining portion configured to obtain an image of the layer formed of the fluid material formed on the stage; and a determination portion configured to determine whether or not a predetermined amount or more of the solvent is volatilized based on the image obtained by the obtaining portion, the apparatus configured such that a next layer formed of the fluid material is laminated after the determination portion determines that the predetermined amount or more of the solvent is volatilized per formation of a predetermined layer in a laminating direction of the layer formed of the fluid material. an ejecting portion configured to eject a fluid material including particles, which can form a constituent material of a three-dimensionally formed object, and a solvent; a stage on which a layer formed of the fluid material, which is ejected from the ejecting portion, can be laminated; a drying portion configured to volatilize the solvent included in the fluid material of the stage; characterized by an obtaining portion configured to obtain an image of the layer formed of the fluid material formed on the stage; and a determination portion configured to determine whether or not a predetermined amount or more of the solvent is volatilized based on the image obtained by the obtaining portion, the apparatus configured such that a next layer formed of the fluid material is laminated after the determination portion determines that the predetermined amount or more of the solvent is volatilized per formation of a predetermined layer in a laminating direction of the layer formed of the fluid material.
Energy supply system for an island grid , having a first electricity generating device , having a second electricity generating device , having a third electricity generating device , having a fourth electricity generating device , having a load , having an energy management system , having a first operating state and a second operating state which differs therefrom, wherein a first operating mode is assigned to the first electricity generating device and a second operating mode is assigned to the second electricity generating device in the first operating state, wherein the first operating mode is assigned to the second electricity generating device in the second operating state , wherein the second operating mode is assigned to the third electricity generating device in the first operating state , wherein the second operating mode is also assigned to the third electricity generating device in the second operating state , characterized in that the second operating mode is a droop mode and has a power addition function, wherein a third operating mode is allocated to the fourth electricity generating device in the first operating state , wherein the third operating mode is also assigned to the fourth electricity generating device in the second operating state , and in that the assignment of an operating mode depends on a prioritization of the electricity generating devices , wherein the electricity generating device that is in the first operating mode has a rated power of at least 200% of the rated power of the greatest load . having a first electricity generating device , having a second electricity generating device , having a third electricity generating device , having a fourth electricity generating device , having a load , having an energy management system , having a first operating state and a second operating state which differs therefrom, wherein a first operating mode is assigned to the first electricity generating device and a second operating mode is assigned to the second electricity generating device in the first operating state, wherein the first operating mode is assigned to the second electricity generating device in the second operating state , wherein the second operating mode is assigned to the third electricity generating device in the first operating state , wherein the second operating mode is also assigned to the third electricity generating device in the second operating state , characterized in that the second operating mode is a droop mode and has a power addition function, wherein a third operating mode is allocated to the fourth electricity generating device in the first operating state , wherein the third operating mode is also assigned to the fourth electricity generating device in the second operating state , and in that the assignment of an operating mode depends on a prioritization of the electricity generating devices , wherein the electricity generating device that is in the first operating mode has a rated power of at least 200% of the rated power of the greatest load .