Abstract: Generally, the inventive technology relates to novel strategies for disease control in animal systems. Specifically, the inventive technology relates to novel methods, systems and compositions for the biocontrol of pathogens in aquatic systems. Specifically, the invention may comprise novel techniques, systems, and methods for the biocontrol of disease-transmitting pathogens affecting shrimp in aquaculture systems.

Abstract: The invention relates to novel systems, methods, and compositions for the competitive inhibition of bacterial toxins expressed in animal systems, and preferably the inhibition of toxins produced by pathogenic bacteria that affect aquatic animals. One aspect of the invention includes methods and compositions for the treatment of Early-Mortality Syndrome (EMS) in shrimp through the use of truncated PirBVp peptides used as competitor inhibitors to reduce formation of the cytotoxic PirAVp/PirBVp dimer complex.

Abstract: The inventive technology relates to novel paratransgenic strategies for the control of pathogens. The inventive technology may specifically include a novel paratransgenic system configured to deliver one or more inhibitory RNA molecules to pathogen/disease-transmitting organisms. In a preferred embodiment, the invention may include one or more genetically engineered symbiotic bacteria configured to persist throughout the life-cycle of a mosquito and deliver one or more interfering RNA molecules to pathogen/disease-transmitting mosquitoes.

Abstract: The present invention includes systems, methods and compositions for increasing trichome formation and/or density in cannabinoid producing plants, such as Cannabis and hemp. Additional aspects of the invention further include systems, methods and compositions for increasing cannabinoid and terpene biosynthetic and storage capacity in Cannabis.

Abstract: The inventive technology includes novel systems, methods, and compositions for the generation of genetically engineered prokaryotic organisms configured to produce eukaryotic-like mRNA that may be introduced to, and translated in a eukaryotic host. Additional aspects may include novel eukaryotic-like nucleotide constructs and mRNA molecules, as well as methods and systems for the efficient delivery from prokaryotic cells to target eukaryotic hosts cells. Still further aspects of the invention include systems, methods and compositions for the the non-integrative transformation of eukaryotic cell.

Abstract: The inventive technology may include a tripartite fluorescent resonance energy transfer (FRET) based fusion protein complex having a ligand binding domain capable of binding to a target ligand and coupled with a donor-acceptor pair of chromophores moieties. The ligand binding domain may be positioned between the donor and acceptor chromophore moieties and may further bind to another ligand binding domain forming a homodimer complex. Ligand binding may cause dissociation of the homodimer complex leading to enhanced donor fluorescence emission and simultaneous quenching of the acceptor fluorescence emission, yielding significant decreases in the acceptor-to-donor fluorescence emission ratio. The tripartite FRET based fusion protein may be used as a biosensor, preferably for molecules responsible for bacterial quorum sensing.

Abstract: The invention relates to the chemical synthesis of waxes. Specifically, the invention relates to systems and methods for the high-yield production of novel and high-value waxes in genetically-modified algae-based systems as a replacement for petroleum-based products.

Abstract: The present invention includes systems, methods and compositions for increasing trichome formation and/or density in cannabinoid producing plants, such as Cannabis and hemp. Additional aspects of the invention further include systems, methods and compositions for increasing cannabinoid and terpene biosynthetic and storage capacity in Cannabis.

Abstract: The present invention includes systems, methods and compositions for increasing trichome formation and/or density in cannabinoid producing plants, such as Cannabis and hemp. Additional aspects of the invention further include systems, methods and compositions for increasing cannabinoid and terpene biosynthetic and storage capacity in Cannabis.

Abstract: Generally, the inventive technology relates to novel strategies for disease control in animal systems. Specifically, the inventive technology relates to novel methods, systems and compositions for the biocontrol of pathogens in aquatic systems. Specifically, the invention may comprise novel techniques, systems, and methods for the biocontrol of disease-transmitting pathogens affecting shrimp in aquaculture systems.

Abstract: The inventive technology may include novel systems for regulation of the expression of bacterial genes through the introduction of antisense RNA (asRNA) that may disrupt expression of targeted pathogenic genes and/or their products (mRNA, proteins). In some embodiments, the inventive technology may include novel genetically engineered donor bacterial strains that are configured to efficiently and continuously deliver asRNA polynucleotides to a recipient pathogen and downregulate expression or one or more essential genes.

Abstract: The inventive technology relates to novel systems, methods, and strategies for the control of plant pathogens and herbivores. The inventive technology may specifically include novel compositions, systems, and methods configured to deliver inhibitory RNA molecules to a pathogen-infected plant. In a preferred embodiment, the invention may include genetically engineered endophytic bacteria configured to deliver one or more inhibitory RNA molecules to a pathogen-infected plant. One preferred embodiment may include a novel trans-kingdom delivery of hairpin RNA targeting viral encoded proteins resulting in the reduction of viral protein accumulation levels.

Abstract: The present invention includes systems, methods and compositions for increasing trichome formation and/or density in cannabinoid producing plants, such as Cannabis and hemp. Additional aspects of the invention further include systems, methods and compositions for increasing cannabinoid and terpene biosynthetic and storage capacity in Cannabis.

Abstract: The inventive technology relates to novel paratransgenic strategies for the control of pathogens. The inventive technology may specifically include a novel paratransgenic system configured to deliver one or more inhibitory RNA molecules to pathogen/disease-transmitting organisms. In a preferred embodiment, the invention may include one or more genetically engineered enteric bacteria configured to deliver one or more interfering RNA molecules to pathogen/disease-transmitting mosquitos.

Abstract: The inventive technology relates to novel paratransgenic strategies for the control of pathogens. The inventive technology may specifically include a novel paratransgenic system configured to deliver one or more inhibitory RNA molecules to pathogen/disease-transmitting organisms. In a preferred embodiment, the invention may include one or more genetically engineered enteric bacteria configured to deliver one or more interfering RNA molecules to pathogen/disease-transmitting mosquitos.

Abstract: The inventive technology relates to novel paratransgenic strategies for the control of pathogens. The inventive technology may specifically include a novel paratransgenic system configured to deliver one or more inhibitory RNA molecules to pathogen/disease-transmitting organisms. In a preferred embodiment, the invention may include one or more genetically engineered symbiotic bacteria configured to persist throughout the life-cycle of a mosquito and deliver one or more interfering RNA molecules to pathogen/disease-transmitting mosquitoes.

Abstract: The inventive technology relates to novel paratransgenic strategies for the control of pathogens. The inventive technology may specifically include a novel paratransgenic system configured to deliver one or more inhibitory RNA molecules to pathogen/disease-transmitting organisms. In a preferred embodiment, the invention may include one or more genetically engineered enteric bacteria configured to deliver one or more interfering RNA molecules to pathogen/disease-transmitting mosquitos.

Abstract: Provided are methods for reducing levels of cyanogenic glycosides and improving protein content in plants, as well as plants containing reduced levels of cyanogenic glycosides and improved protein content. In one aspect, such methods comprise, and such plants are created via, tissue-specific expression of a storage protein such as hydroxynitrile lyase in the apoplastic space of cells of the roots and tubers of such plants.

Abstract: The present invention relates to the genetic control of parasites and pathogens via the expression of silencing RNA in transgenic plants, including microalgae. In one aspect, the invention exploits the ability of plants to express the silencing RNA in a form within chloroplasts that is efficiently taken up, after ingestion where it can act to suppress the expression of target genes within the pathogen or parasite.

Abstract: Genetically engineered algae strains for biofuels and bioproduct production have improved iron utilization including iron uptake and storage, and exhibit improved growth characteristics, magnetic separation, and magnetic hysteresis induced cell lysis. Pond production algal strain embodiments with high iron scavenging capabilities limit iron availability to contaminating microorganisms and invading species. Accumulation of high iron and other paramagnetic elements content in the form of ferritin enhances the cells magnetic susceptibility improving efficiency of magnetic separation and magnetic hysteresis induced cell lysis. Several genes of the embodiments are capable of improving iron acquisition including the ferritin gene fer1, iron transport gene fea1, and iron reductase gene fre1.