Patent classifications
C02F3/347
GENETICALLY MODIFIED MICRORGANISMS THAT CARRY OUT THE HETEROLOGOUS PRODUCTION OF MODIFIED VERSIONS OF THE SURFACTANT PROTEIN LV-RANASPUMIN-1(LV-RSN-1), THE MODIFIED VERSIONS OF SAID SURFACTANT PROTEIN, THE SYNTHETIC GENES ENCODING SAID SURFACTANT PROTEIN, THE EXPRESSION CASSETTES CONTAINING SAID SYNTHETIC GENES, AND THE EXPRESSION VECTORS CONTAINING SAID SYNTHETIC GENES
The present invention refers to the heterologous production in microorganisms of modified versions of a predicted isoform of the surfactant protein Lv-ranaspumin-1 (Lv-Rsn-1), whose sequence was inferred from analyzes of the protein extract of the nest foam from the Northeastern Pepper Frog (Leptodactylus vastus). More specifically, it refers to two surfactant proteins that consist of modified versions of the predicted isoform of Lv-Rsn-1; to two synthetic genes each encoding one of these modified versions of the predicted isoform of Lv-Rsn-1; to two expression cassettes each containing one of the synthetic genes encoding one of the modified versions of the predicted isoform of Lv-Rsn-1; to two expression vectors each containing one of the synthetic genes encoding modified versions of the predicted isoform of Lv-Rsn-1; and to two transgenic microorganisms, a bacterium and a yeast, each transformed with one of these synthetic genes and heterologously producing one of the modified versions of the predicted isoform of Lv-Rsn-1. Lv-Rsn-1 has surfactancy, emulsification and dispersancy properties, among others, and its heterologous production allows it to be used in various applications and industrial products, without the need to extract it from the frog nest foam.
IN-SITU MYCOREMEDIATION SYSTEM AND PROCESS
An in-situ mycoremediation system and process is provided, including a device with a rod casing having a top end, a bottom end, and a sidewall with one or more perforations, the sidewall defining an internal channel that extends from an intake opening on the top end to the one or more perforations, a sleeve that extends around at least part of the rod casing and that is slidable between at least a first position that covers the one or more perforations and a second position that at least partly uncovers the one or more perforations, and a plumbing line linked to the intake opening and configured to facilitate forcible injection of one more fungal mixtures and/or air via the one or more perforations when the sleeve is in the second position.
Remediation of rag layer and other disposable layers in oil tanks and storage equipment
The subject invention provides microbe-based products, as well as their use to improve oil production and refining efficiency by, for example, remediating the disposable layers in oil tanks and other oil storage units. In preferred embodiments, the microbe-based products comprise biochemical-producing yeast and growth by-products thereof, such as, e.g., biosurfactants. The subject invention can be used to remediate rag layer and/or other dissolved solid layers that form in water-oil emulsions. Furthermore, the subject invention can be used for remediating solid impurities, such as sand, scale, rust and clay, in produced water, flow-back, brine, and/or fracking fluids.
NOVEL MICROORGANISM HAVING HIGH ABILITY TO DEGRADE OIL AT LOW TEMPERATURE
In an aspect, the present disclosure provides a novel microorganism having an ester degrading ability. In an aspect, the present disclosure provides a combination of novel microorganisms having an oil degrading ability. In an embodiment, the microorganism of the present invention includes a yeast belonging to the genus Yarrowia. In an embodiment, the microorganism of the present invention includes Yarrowia lipolytica. In an embodiment, the present disclosure provides a combination of a Burkholderia bacterium with a Yarrowia yeast. In an embodiment, provided is an oil degrading agent that comprises the microorganism of the present disclosure.
Multi-purpose bio-electrical modules and procedures
The invented bio-electrical system is a housing-electrode which allows insertion of another electrode for various electrochemical and bio-electrical applications. Together with other invented elements as well as standard components, the system is fully scalable, modular, and allows production and collection of gases under pressure. It can be built in many shapes, such as the embodied tubular shape. The design allows operation on unstable ground, for example on ships. Flow of electrolyte can be regulated and directed in cascaded reactions by opening and closing the compartments of the outer or the inner electrodes using the provided electrode holders. The redox conditions inside the system can be controlled using off-the-shelf power supplies which are controlled using the provided algorithm. Gas collection can be regulated based on the level of liquid inside the system using the provided float switches or conductivity probes even as the system is moving or operated under zero-gravity conditions.
Biodegrading recalcitrant to biodegradation organic substances
A composition for stimulating the production and excretion of a lignolytic enzyme in a microorganism for degrading harmful substances and/or in the manufacturing of easily degradable ester containing plastics or articles made of ester containing plastic. The composition mainly includes tributyrin, triolein, fish oil, 16-hydroxyhexadecanoic acid, n-aliphatic primary fatty alcohols, polycaprolactone, aliphatic polyesters, linolenic acid, linoleic acid, alpha linolenic acid, plant polyesters, cutin, cutin derivatives, cutin monomers, omega hydroxy acids, 16-hydroxy palmitic acid, 9,16-dihydroxypalmitic acid, 10,16-dihydroxypalmitic acid, C18-hydroxy oleic acid, 9,10-epoxy-18-hydroxy stearic acid, 9,10,18-trihydroxystearate, suberin, cork, fruit skins, vegetable skins, and their constituents and derivatives, hydroxy fatty acids, 16-hydroxy palmitic acid, 18-hydroxy stearic acid, juniperic acid, hexadecanol, linseed oil, perilla oil, amides, acetamide and N-acetyl amide, zinc, zinc salts, butyrate, acetate, lactate, manganese peroxidase, and carbamide peroxide.
FILAMENTOUS FUNGAL BIOMATS, METHODS OF THEIR PRODUCTION AND METHODS OF THEIR USE
A novel method of growing fungi is disclosed which uses an engineered artificial media and produces high density filamentous fungi biomats that can be harvested with a minimum of processing and from which fungal products such as antibiotics, proteins, and lipids can be isolated, the method resulting in lowered fungus cultivation costs for energy usage, oxygenation, water usage and waste stream production.
REMEDIATION OF RAG LAYER AND OTHER DISPOSABLE LAYERS IN OIL TANKS AND STORAGE EQUIPMENT
The subject invention provides microbe-based products, as well as their use to improve oil production and refining efficiency by, for example, remediating the disposable layers in oil tanks and other oil storage units. In preferred embodiments, the microbe-based products comprise biochemical-producing yeast and growth by-products thereof, such as, e.g., biosurfactants. The subject invention can be used to remediate rag layer and/or other dissolved solid layers that form in water-oil emulsions. Furthermore, the subject invention can be used for remediating solid impurities, such as sand, scale, rust and clay, in produced water, flow-back, brine, and/or fracking fluids.
METHOD FOR PREPARING AGRICULTURAL PRODUCTS FROM BIOLOGICAL SLUDGE CONTAINING MICROBIAL CELLS
A method for preparing agricultural products from a biological sludge containing microbial cells includes the steps of: subjecting the biological sludge to a pretreatment process which includes introducing ozone and supplying a hydraulic pressure to generate cavitation to destroy cell wall of the microbial cells; and subjecting the pretreated biological sludge to a solid-liquid separation treatment to obtain a solid fraction including cell debris and a liquid fraction including a cell lysate solution.
Filamentous fungal biomats, methods of their production and methods of their use
A novel method of growing fungi is disclosed which uses an engineered artificial media and produces high density filamentous fungi biomats that can be harvested with a minimum of processing and from which fungal products such as antibiotics, proteins, and lipids can be isolated, the method resulting in lowered fungus cultivation costs for energy usage, oxygenation, water usage and waste stream production.