Bio::Neos aims to provide bioinformatics software tools to aid commercial and academic research groups in efficiently and effectively performing genomics-enabled research. The company specialize in mutation identification research and custom software solutions specifically developed to meet the needs of research groups of any size.

Flamma specializes in the manufacture of active ingredients and intermediates for the pharmaceutical, nutraceutical and cosmetic industries.

The RDSP was created to help investigators identify funding opportunities and provide assistance to applicants. The RDSP staff work to stimulate research in cancer CAM and design activities that will develop the foundation of the science in cancer CAM research. RDSP programs include a series of Expert Panels on Research Methodologies in Cancer, an Invited Speakers Series, and technical assistance to help investigators prepare grant applications in cancer CAM.

The company's core business is and remains the development and production of Active Pharmaceutical Ingredient and parenteral formulations in the the form of solution and Lyophilized injection, in areas like anesthialogy and oncology.

EMTech, a spin-off of BiOva, LLC, is researching, developing, and manufacturing technologies for the metabolic enhancement of the enzymes and bacteria used in the fermentation industry. The company's current products and ongoing research projects show applications that enhance productivity in the ethanol, pharmaceutical, beer, wine, and dairy industries.

Solidus Biosciences is a company that received a STTR Phase II grant for a project entitled: Development of a Lead Optimization Chip for Drug Discovery. Their award is funded under the American Recovery and Reinvestment Act of 2009 and their project will address further development and commercialization of a multi-enzyme lead optimization chip (Multizyme Chip) for high-throughput generation of lead compound analogs coupled with cell-based screening for the rapid identification of biologically active derivatives. Such a capability directly impacts a key bottleneck in drug discovery; namely, the efficient optimization of lead compounds to develop drugs with optimal pharmacological properties. Solidus Biosciences, Inc. proposes to combine six biocatalysis with pharmacological screening to provide rapid identification of biologically active compounds against cell-specific targets, which is a new paradigm for lead optimization. Moreover, the Multizyme Chip platform will be well-suited for lead optimization in related industries, including agrochemicals, cosmetics, and cosmeceuticals. The Solidus technology will thus improve the competitiveness and efficiency of the pharmaceutical, cosmetics, and chemical industries, and will serve as a rich source of new and improved commercial products. The broader impacts of this research are the advances that Solidus Biosciences will achieve toward generating better and safer drugs, reducing the cost to develop these drugs, and increasing the overall efficiency of the pharmaceutical industry. Solidus will generate Multizyme Chips for purchase by pharmaceutical and biotechnology companies to facilitate their lead optimization programs, particularly those involving natural product-derived and complex synthetic small molecule leads. Cryopreservation techniques developed in Phase II will enable the sale of chips and chip-handling devices produced during Phase I, and will allow seamless penetration of the Solidus technology platform into the company's target markets. Solidus Biosciences is a company that received a STTR Phase I grant for a project entitled: Development of a Lead Optimization Chip for Drug Discovery. Their research project aims to develop a new method for generating lead compounds by using enzymatic modification of compound sets. Availability of new methodology to generate biologically active compounds from existing molecules may enhance the success of the drug discovery process and may lead to the discovery of new and useful therapeutics. Solidus Biosciences is a company that received a STTR Phase I grant for a project entitled: High-Throughput RNAi Screening of Mammalian Cells. Their research project aims to develop a system for the rapid screening of siRNAs that can inhibit genes involved in cellular responses such as hyperosmotic stress that can affect pathways of high commercial importance, including protein production. Use of hyperosmotic stress as a proof of concept system will demonstrate the feasibility of high-throughput RNAi screening and will at the same time yield results that can be used to improve monoclonal antibody production in commercial and laboratory settings Production of biopharmaceuticals such as antibodies is exquisitely responsive to the culture conditions under which the cells are grown and thus can be improved through optimizing such settings, which in turn, would affect the genes involved in the specific synthetic pathways of interest. Development of a rapid methodology to identify inhibitory RNA molecules that can inhibit genes that adversely affect yield would be of significant importance to pharmaceutical companies that produce protein therapeutics and may result in a lowering of the const of these therapeutic entities.