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Open AccessJournal ArticleDOI

The SuperChip for microbial community structure, and function from all environments.

TLDR
A cheap and portable assay would impact countless areas, including clean water technologies, emerging diseases, bioenergy, infectious disease diagnosis, climate change, food safety, environmental clean‐up and bioterrorism, but it will require a very large group of multidiscplenary scientists from multiple institutions crossing many international boundaries and funding over a 5‐year period of more than $100 million.
Abstract
Summary We have the technology and capability to develop an all-in-one microarray that can provide complete information on a microbial community, including algae, protozoa, bacteria, archaea, fungi, viruses, antimicrobial resistance, biotoxins and functional activity. With lab-on-a-chip, nanotechnology integrating a variety of the latest methods for a large number of sample types (water, sediment, waste water, food, blood, etc.) it is possible to make a desktop instrument that would have universal applications. There are two major thrusts to this grand challenge that will allow us to take advantage of the latest biotechnological breakthroughs in real time. The first is a bioengineering thrust that will take advantage of the large multidisciplinary laboratories in developing key technologies. Miniaturization will reduce reagent costs and increase sensitivity and reaction kinetics for rapid turnaround time. New and evolving technologies will allow us to port the designs for state-of-the-art microarrays today to completely new nanotechnology inspired platforms as they mature. The second thrust is in bioinformatics to use our existing expertise to take advantage of the rapidly evolving landscape of bioinformatics data. This increasing capacity of the data set will allow us to resolve microbial species to greatly improved levels and identify functional genes beyond the hypothetical protein level. A cheap and portable assay would impact countless areas, including clean water technologies, emerging diseases, bioenergy, infectious disease diagnosis, climate change, food safety, environmental clean-up and bioterrorism. In my opinion it is possible but it will require a very large group of multidiscplenary scientists from multiple institutions crossing many international boundaries and funding over a 5-year period of more than $100 million. Given the impact that this SuperChip could have it is well worth the price!!!

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Citations
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Journal ArticleDOI

Applications of functional gene microarrays for profiling microbial communities.

TL;DR: This review focuses on applications of FGA technology for profiling microbial communities, including target preparation, hybridization and data processing, and data analysis.
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Variation in microbial community from predominantly mesophilic to thermotolerant and moderately thermophilic species in an industrial copper heap bioleaching operation

TL;DR: In this paper, a comprehensive monitoring program has been performed at an industrial bio-leaching heap at the Escondida mine in Chile since 2006, in order to study possible changes to the indigenous microbial population.
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Characteristic of filamentous fungal diversity and dynamics associated with wheat Qu and the traditional fermentation of Chinese rice wine

TL;DR: This research presents a novel and scalable method forFermentation Technology of Rice Wine that can be applied to Food Safety and Nutrition and has shown promising results in terms of quality and efficiency.
Book ChapterDOI

Chapter 1 - Applications of Functional Gene Microarrays for Profiling Microbial Communities

TL;DR: This chapter focuses on functional gene arrays, which probe for structural genes involved in particular functions of interest, which are used to examine samples from numerous environments including the deep sea, Antarctic locations, metals-contaminated sites, climate change experimental sites, human environments, and other clinical applications.
References
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Microbial gene functions enriched in the Deepwater Horizon deep-sea oil plume

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PCR Amplification-Independent Methods for Detection of Microbial Communities by the High-Density Microarray PhyloChip

TL;DR: Direct hybridization of dscDNA and RNA is a viable alternative to PCR-amplified microbial community analysis, providing identification of the active populations within microbial communities that attenuate pollutants, drive global biogeochemical cycles, or proliferate disease states.
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