Future Technologies

被引:0
|
作者
Cano, Raul J. [1 ]
Toranzos, Gary A. [2 ]
机构
[1] Calif Polytech State Univ San Luis Obispo, San Luis Obispo, CA 93407 USA
[2] Univ Puerto Rico, Rio Piedras Campus, San Juan, PR 00933 USA
来源
MICROBIOLOGY SPECTRUM | 2018年 / 6卷 / 02期
关键词
DNA; PITFALLS;
D O I
10.1128/microbiolspec.EMF-0015-2018
中图分类号
Q93 [微生物学];
学科分类号
071005 ; 100705 ;
摘要
Microbiome analysis of environmental samples may represent the next frontier in environmental microbial forensics. Next-generation sequencing technologies significantly increased the available genetic data that could be used as evidentiary material. It is not clear, however, whether the microbiome can scale across institutions using forensic-based evidence due to the data resource requirements and the associated costs of maintaining these databases. A successful microbiome study is impacted by the quality of the information gathered and the steps in sample processing and data analysis. To ascertain the validity of methods and the results obtained, there needs to be a stringent procedure to validate the methods and ensure that the results are comparable and reproducible, not only within the laboratory but also between laboratories conducting similar research. Of primary importance for meaningful microbiome studies is an experimental design that leads to carefully executed, controlled, and reproducible studies. The microbiome literature contains a fair share of anecdotal descriptions of microbial community composition and "diagnostic" relative abundance of the taxa therein. These studies are now being supplemented by experimental designs that feature repeated measurements, error estimates, correlations of microbiota with covariates, and increasingly sophisticated statistical tests that enhance the robustness of data analysis and study conclusions. It is imperative to be careful, especially when carrying out attribution studies, to be fully aware of the possible biases included in a specific sample being analyzed.
引用
收藏
页数:5
相关论文
共 50 条
  • [21] MAN AND THE FUTURE OF TECHNOLOGIES
    PAVLIK, J
    TENZER, O
    HEMELIK, M
    VALENCIK, R
    FILOSOFICKY CASOPIS, 1988, 36 (03): : 343 - 357
  • [22] FUTURE TECHNOLOGIES IN PROGRAMMING
    GRIMES, JD
    ELECTRICAL COMMUNICATION, 1983, 58 (01): : 102 - 104
  • [23] Antenna Technologies for the Future
    Hindle, Patrick
    MICROWAVE JOURNAL, 2018, 61 (01) : 24 - 40
  • [24] Future voice technologies
    Bharucha, B
    da Fonseca, NLS
    Katz, SS
    Zukerman, M
    IEEE JOURNAL ON SELECTED AREAS IN COMMUNICATIONS, 1999, 17 (01) : 1 - +
  • [25] Future energy technologies
    Valone, T.
    Journal of New Energy, 2000, 5 (02): : 41 - 46
  • [26] Future wireless technologies
    Neuvo, Y
    PROCEEDINGS OF THE IEEE 6TH CIRCUITS AND SYSTEMS SYMPOSIUM ON EMERGING TECHNOLOGIES: FRONTIERS OF MOBILE AND WIRELESS COMMUNICATION, VOLS 1 AND 2, 2004, : I1 - I3
  • [27] ORGANIZING FOR FUTURE TECHNOLOGIES
    WASSON, RE
    DATAMATION, 1990, 36 (07): : 93 - 95
  • [28] Advanced Technologies of Current and Future ODD Technologies
    Park, No-Cheol
    Park, Kyoung-Su
    Kim, Seokhwan
    Kim, Do-Hyung
    Oh, Wonseok
    Park, Young-Pil
    2013 CONFERENCE ON LASERS AND ELECTRO-OPTICS PACIFIC RIM (CLEO-PR), 2013,
  • [29] Earwarming: the future and the industrial future of listening technologies
    Stiegler, Bernard
    CIRCUIT, 2006, 16 (03): : 33 - 42
  • [30] Perspective on Future and Emerging Technologies
    Boch, Wolfgang
    Fiala, Ales
    PROCEEDINGS OF THE 2ND EUROPEAN FUTURE TECHNOLOGIES CONFERENCE AND EXHIBITION 2011 (FET 11), 2011, 7 : 126 - 126