Abstract:
The present invention pertains to methods for pretreatment of cellulosic biomass for bioconversion into ethanol and other biofuels and wood-based chemicals, recycling of newsprint and other paper products, microfibrillation of cellulose for use as an additive in the food and cosmetic industries, manufacturing improved hardboard, and producing and improved “super” pulp while reducing chemical usage and spent liquor generation. In particular, the instant invention employs supercritical, critical or near critical fluids with and without polar cosolvents [critical fluid, SuperFluids or SFS] for the pretreatment of cellulosic biomass.
Abstract:
This invention is for improving the manufacturing pharmaceutical grade CBD and other cannabinoids following current Good Manufacturing Practices (cGMP) of the US FDA for use in clinical trials for CNS and other indications by the NIH and other researchers. The major cannabinoids in marijuana (Cannabis) and hemp originate from Cannabigerolic Acid (CBGA) present in the biomass of the plant. Plant enzymes that are specific to different strains of biomass converts CBGA to different carboxylic acids of cannabinoids including Cannabidiolic Acid (CBDA) and Δ9-Tetrahydrocannabinolic Acid (Δ9-THCA). These are relatively stable in the growing and fresh-cut plants. These are converted by thermal decarboxylation to Cannabidiol (CBD) and Δ9-Tetrahydrocannabinol (Δ9-THC), carbon dioxide and water. Cannabinoids can be manufactured by first heating the Cannabis biomass to convert carboxylic acids prior to extraction and purification. Alternatively, and preferably because of manufacturing cost and product stability, the carboxylic acids can be first extracted and purified. They can be utilized in the carboxylic acid form or stored in a stable manner until converted to cannabinoids for use in medicine. This invention provides an efficient method for their conversion utilizing a high-pressure reactor under inert conditions.
Abstract:
This disclosed technology relates to a new mRNA COVID-19 vaccine that is stable at room temperature, requires only one injection, and is less prone to patient hypersensitivity reactions. The vaccine is practical to deploy globally during vaccination campaigns for current and future coronavirus pandemics and other infectious diseases. The disclosed technology is a method and system for producing the vaccine, and also a double-encapsulated mRNA vaccine product. The method uses double nanoencapsulation of an mRNA vaccine, first in phospholipid nanosomes and then in biodegradable polymer nanospheres. The method may be carried out as a continuous flow, integral, or two-stage processes. The method and system use supercritical fluid technology for nanoencapsulating mRNA in a solvent free process that minimizes loss of potency and preserves antigenicity of the nanoencapsulated mRNA and eliminates residual organic solvents in the final product. The double-encapsulated mRNA vaccine product is stable at room temperature and can be administered in a single shot to humans.
Abstract:
This invention relates to methods of separating and purifying cannabinoids such as CBD, CBDA, Δ9-THC (THC), Δ9-THCA (THCA), CBN, CBG and others extracted from Cannabis sativa and other Marijuana biomass. These methods employ the use of segmentation chromatographic purification to establish purities in excess of 98.5%.
Abstract:
Method and apparatus for producing a broad-spectrum therapeutic for inactivating multiple coronavirus strains including COVID-19. The present invention generates an in situ light source which can inactivate the coronavirus within the body without damaging host cells. This invention couples chemiluminescence-generating compounds with various light-sensitive anti-viral compounds. When activated by chemiluminescence-generated light, the anti-viral compounds inactivate nearby virus particles. In one aspect, the coupled components are co-encapsulated in polymer nanospheres for oral and intranasal delivery. In another aspect of the invention, the coupled components are co-encapsulated in phospholipid nanosomes for intravenous delivery.
Abstract:
The novel coronavirus COVID-19 has caused a worldwide pandemic of enormous proportions resulting in significant levels of morbidity and mortality, tremendous pressures on the healthcare system, personal freedoms and society, and an unprecedented impact on the economies of the United States and the world. There are still significant unknowns about this very contagious and deadly virus, and these unknowns are coupled with no natural immunity. A promising therapeutic strategy is the utilization/transfusion of convalescent plasma from recovered COVID-19 patients. There are, however, risks involved in such transfusions from residual virus and other adventitious viruses and bacteria. These risks can be minimized by the pathogen clearance of convalescent plasma units in a hospital setting. There is an immediate need for the rapid pathogen inactivation/clearance of convalescent plasma units from recovered COVID-19 patients. The present invention is a physical pathogen reduction and inactivation apparatus and method for controlling or eliminating transfusion-transmittable infections in convalescent plasma from recovered COVID-19 donors. The invention inactivates both nonenveloped and enveloped viruses as well as pathogenic bacteria and parasites in units of human plasma, while retaining the potency of natural biologically-active proteinaceous products in the pathogen-reduced plasma. The invention uses critical, near-critical or supercritical fluids for viral and pathogen reduction of units of donor blood plasma in blood bags. The apparatus is in the form of a transportable mobile unit, where it can be used in hospitals, blood banks, and medical facilities.
Abstract:
Embodiments of the present invention are directed to particles having a Bryoid and a HDAC inhibitor for the treatment of latent viral disease.
Abstract:
Embodiments of the present invention are directed to articles of manufacture, spheres having a diameter of 50 to 500 nanometers which contain poorly soluble drugs and methods of making such spheres. Embodiments of the present invention have particular application for the following drug candidates and closely related poorly soluble derivatives of such candidates: (i) indole hydrazinecarbothioamide [NSC 73306]; (ii) fenretinide (4HPR) [NSC 374551]; (iii) safingol [NSC 714503]; (iv) 17-allylamino demethoxygeldanamycin (17-AAG) [NSC 330507]; and (v) an aminoflavone drug [NSC 686288].
Abstract:
The present invention pertains to methods for making compositions and compositions for treating pain and cachexia or AIDS wasting. In particular, the instant invention employs methods for making Δ9-tetrahydrocannabinol (Δ9-THC) and Δ9-tetrahydrocannabinolic acid (Δ9-THCA) from Cannabis sativa, and compositions for the treatment of these diseases.
Abstract:
Supercritical and near critical fluids are used to fractionate biomass materials such as microbial cells in two steps. In the first step, the biomass is exposed to elevated pressure supercritical or near critical fluid to bring about disruption of the biomass to liberate structural biomass constituents. In the second step, the disrupted biomass is subjected to a multiplicity of supercritical or near critical fluid extraction steps, with different solvation conditions used for each fraction. Thus, fractionation of the biomass to obtain one or more compounds is effected. Different solvation properties are obtained using different temperatures, pressures and/or modifier concentrations.