60results about How to "Maintain production" patented technology

A system and method for analyzing loan data to identify risk. In a database, loan data is stored with one or more associated characteristics. The system includes a risk filtering engine is in communication with the database so that a user may apply one or more risk filters to the loan data to identify particular loans with particular risk characteristics. The system further includes a loss estimation engine for providing an estimated loss for each loan, a probability of loss engine for determining a probability of loss for each loan, and a loss list engine for generating a list of loans with heightened risk of loss.

A method for producing a water-insoluble liquefied fuel oil containing a hydrocarbon from biomass is provided, comprising converting an oxygen-containing compound in a liquefied fuel oil obtained after liquefaction to a hydrocarbon and converting a water-soluble organic substance contained in an aqueous phase to a hydrocarbon, thereby improving the yield of the water-insoluble liquefied fuel oil. The method for producing a water-insoluble liquefied fuel oil containing a hydrocarbon comprises the steps of: subjecting a mixture that contains biomass containing lignocellulose, an organic solvent, and water to liquefaction; simultaneously with or after liquefaction, causing a mixture of the liquefied fuel oil that contains the organic solvent and an aqueous phase that contains a water-soluble organic substance to come into contact with a dehydration catalyst under pressure and then subjecting the resultant to dehydration, or causing a mixture of the liquefied fuel oil that contains the organic solvent and an aqueous phase that contains a water-soluble organic substance to come into contact with hydrogen in the presence of a hydrogenation catalyst under pressure, and then subjecting the resultant to hydrogenation; and separating a water-insoluble liquefied fuel oil from the mixture after dehydration or hydrogenation.

A system providing a comprehensive tool useful in credit risk managing a set of loans. The system includes a method for obtaining an estimated financial outcome, i.e., a gain or a loss, for a particular loan, and applying the estimated loss for to the set. The system also includes a method for obtaining a probability of a loss for a particular loan, and applying the probability of loss to the set. The system further includes the generation of a list of loans from the set of loans with a heightened risk of loss.

The present invention relates to a photosensitizer-containing nanoparticle, comprising a photosensitizer covalently bonded throughout at least a part of said nanoparticle to the nanoparticle matrix material and incorporated therein in a quasi-aggregated state. The present invention further relates to methods for producing the invention nanoparticles, and to methods of killing cancer cells by PDT treatment using the said nanoparticles.

The present invention relates generally to crystalline forms of anti-CD20 antibodies and purification of anti-CD20 antibodies involving crystallization.

The present invention 1, 2 or 3 provides a desulfurization function-added FCC catalyst which can efficiently reduce the sulfur content of FCC gasoline while maintaining the yield of FCC gasoline in a process of producing FCC gasoline by cracking of heavy oil. The catalyst has vanadium supported on a carrier comprising (a) an alumina-coated zeolite and (b) a porous inorganic oxide except zeolite and/or a clay mineral, wherein the supported vanadium amount is from 500 to 20000 ppm by mass in terms of vanadium metal and the acid amount is from 20 to 450 μmol/g and the macropore surface area is from 30 to 150 m²/g; or the catalyst has vanadium supported on a carrier containing from 5 to 40% by mass of (a) an alumina-coated zeolite and from 30 to 70% by mass of (b) an alumina, wherein the vanadium concentration ratio before and after grinding the catalyst is at least 2; or the catalyst has at least vanadium and manganese and/or phosphorus supported on a porous inorganic oxide-containing carrier, wherein the supported vanadium amount is from 500 to 20000 ppm by mass in terms of vanadium metal, vanadium and manganese and/or phosphorus form a complex ion in the supporting solution for use in supporting vanadium and manganese and/or phosphorus, and the permeability of the complex ion through a reverse osmosis membrane is at most 25% relative to the permeability of vanadium through the reverse osmosis membrane.

For the production of acrylonitrile by ammoxidation of propylene, there is provided a catalyst capable of giving a high yield for a long period of time. In producing acrylonitrile by ammoxidation of propylene, there is used a metal oxide as a catalyst, which metal oxide contains iron, antimony, molybdenum, bismuth, potassium, an F element, a G element, an H element and silica as essential components in a specific composition ratio, and in which metal oxide iron antimonate exists as a crystal phase, provided that the F element is at least one element selected from the group consisting of magnesium, calcium, strontium, barium, manganese, cobalt, nickel, copper, silver, zinc and cadmium, the G element is at least one element selected from the group consisting of chromium, aluminum, gallium and indium, and the H element is at least one element selected from the group consisting of yttrium, lanthanum, cerium, praseodymium, neodymium and samarium.

The invention discloses a method for improving the nitrogen yield of an air separation device. The method includes the steps that according to required product nitrogen increasing amount, rectification packing or the plate number needed when a certain amount of waste nitrogen is rectified into pure nitrogen is calculated; the rectification packing or the plate number of an upper column on the air separation device is correspondingly increased according to a calculation result; by further rectifying and purifying the waste nitrogen of the upper column, the waste nitrogen is purified into pure nitrogen, and the product volume of the increased pure nitrogen is obtained. The method further includes the steps that mediums in a pure nitrogen channel and mediums in a waste nitrogen channel of the air separation device are exchanged, the lost cooling capacity, caused by reduction of the amount of the waste nitrogen, of a water cooling tower and a molecular sieve purifier is calculated, and cold loss is compensated for by additionally arranging a freezing machine and a liquid nitrogen evaporator. Besides, the yield of product nitrogen can change according to requirements in the range that the ratio of product oxygen to the nitrogen is 1:1 to 1:3. According to the method, the oxygen and nitrogen design proportion of an original air separation device is changed at low improvement cost, and the yield of pure nitrogen products is obtained to the largest extent.

A semiconductor manufacturing device, according to the present invention, comprises a load port unit, a substrate transfer unit, and a processing unit sequentially arranged along a transfer path of a semiconductor substrate, wherein the load port unit has a load door relatively movable with respect to the substrate transfer unit while being accommodated in the substrate transfer unit, and an air introduction path for connecting the inside and the outside of the substrate transfer unit under the load door; and the substrate transfer unit has a substrate processing module for communicating with the load port unit and the processing unit while limiting a processing space of the semiconductor substrate, and an air supply module positioned on the substrate processing module so as to supply dry, purified air to the substrate processing module.

A circuit carrier adapted for a pin grid array (PGA) package is disclosed. The circuit carrier comprises a substrate, at least one pin pad, at least one solder mask layer, at least one solder layer, at least one pin and a fixing layer. The pin pad is disposed over the surface of the substrate. The solder mask layer is disposed over the surface of the substrate, and exposing at least a portion of the pin pad. The solder layer is disposed over the pin pad. One end of the pin connects to the pin pad through the solder layer. The fixing layer is disposed over the solder mask layer, and covering the solder layer and a portion of a side surface of the pin. When the solder layer melts due to a high process temperature, the fixing layer helps to fix the pin to the pin pad.

A resistive memory apparatus and a setting method for a resistive memory cell thereof are provided. The setting method includes: performing a first setting operation on the resistive memory cell, and performing a first verifying operation on the resistive memory cell after the first setting operation is finished; determining whether to perform a first resetting operation on the resistive memory cell according to a verifying result of the first verifying operation, and performing a second verifying operation on the resistive memory cell after the first resetting operation is determined to be performed and is finished; and determining whether to perform a second resetting operation on the resistive memory cell according to a verifying result of the second verifying operation, and performing a third verifying operation on the resistive memory cell after the second resetting operation is determined to be performed and is finished.

The present invention concerns a method for producing terpenes in fungi comprising the steps of (a) providing a modified terpene biosynthetic gene cluster inside a host cell, wherein one or more of the naturally occurring genes or promoters of the cluster have been replaced, truncated or removed, (b) providing a transcription factor inside the host cell, the transcription factor activating the terpene biosynthetic gene cluster; (c) cultivating said host in conditions allowing the expression of the transcription factor activating the cluster; and optionally (d) recovering the thus produced terpene product.

The disclosure provides a method for manufacturing a conductive device substrate. First, a carrier substrate is provided and an organic pillar is formed on the carrier substrate. Subsequently, a conductive layer is formed. The conductive layer covers the organic pillar to form a conductive pillar. The conductive pillar has a first surface and a second surface opposite to each other. Next, a substrate material layer is formed to cover the conductive pillar and the carrier substrate, and the substrate material layer includes an organic material. The substrate material layer exposes the first surface of the conductive pillar. Subsequently, a device layer is formed on the substrate material layer to electrically connect to the conductive pillar. In addition, a conductive device substrate and a display panel are also provided.

A method moves a tube wave reflector in a well, generates a tube wave, receives a reflection, and determines the depth of one or more reflector locations from the elapsed time. Also, a method to locate a feature in a well deploys a bottom hole assembly (BHA), generates acoustic noise from the BHA, and autocorrelates to determine the BHA depth. Also, a system has a coiled tubing string to a BHA, a surface wave generator, a surface and/or distributed receiver, and a recorder to determine elapsed times between generation and receipt.

The invention discloses a culture method with spatial mixing of aquatic gordon euryale and fishes. The method includes the steps that a fishpond in an inverted isosceles trapezoid shape is arranged, a double-layer net is arranged around the fishpond, a water heating device and a water temperature control device are arranged, and water injection ports and water drainage ports are formed in the four corners of the fishpond; after the dried fishpond is desilted and exposed to the blazing sun for a long time, gordon euryale seeds are sprouted in air without soil, then sowing is conducted, and then water is injected along with early-stage growth of gordon euryale; after water culture, fry are put in, and the fry are fed with feed; disinfection devices are arranged on the water injection ports, compound bacteria and compound sodium nitrophenolate are splashed, and the fishpond is disinfected after harvesting and catching. Fishes cultured through the method grow fast, and meanwhile the natural flavor is maintained; by utilizing photosynthesis, planted gordon euryale absorbs nutrient substances such as nitrogen and phosphorus in water in the fishpond through the developed roots, and produced stems and fruits can be used and have economic benefits.