Cyclops proposes a solution for studying deep-sea microbial biodiversity using a patented sampling methodology and device allowing for retrieval of uncontaminated, undisturbed deep-sea samples while maintaining ambient pressure. Examination of deep-sea microbial ecology is limited by the absence of sampling technology that collects and maintains sample media in the absence of decompression, and assures an uncontaminated and uncompromised sample. The technology employs an innovative controllable interface between the marine environment and the sample chamber. This design, and unique method of operation, have achieved all Phase 1 goals, establishing viability of all core elements of design and operation. Phase 2 objectives will achieve proof of principle by fabricating a fully operational prototype capable of retrieving an abyssal sediment core, including the benthic boundary layer. This embodiment can be modified to retrieve liquid, solid, slurry, or whole organisms, maintain ambient pressure; and preserve the native environment. The technology interoperates with existing surface handling equipment -e.g. a high-pressure isolation/culture chamber and chemostat - to create a system allowing retrieval, transfer, isolation, culture, and the study (in natural environments) of benthic marine organisms (all in the absence of decompression). Phase 2 objectives: Build, test, and operate sampler, and commence retrieval of abyssal sediment cores. COMMERCIAL APPLICATIONS: The commercial applications for the technology are supported by the rapid growth of the field of extremophiles. For example, the recent discovery that the actinomycetes (a key source for antibiotics) exists at hydrothermal vents is a primary application to technology. This study of marine actinomycetes could provide the basis for new resistant strains of antibiotics. Other commercial applications for the novel bioactive compounds to be retrieved by Cyclops technology includes enzymology, biotechnology, and any other industry engaging in natural products research.