Advanced search×

Development of microsphere-based multiplex branched DNA assay for detection and differentiation of avian influenza virus strains.

J Clin Microbiol 48(7):2575-7 (2010) PMID 20484609 PMCID PMC2897486

We developed and evaluated a multiplex branched DNA assay for the detection and subtyping of avian influenza (AI) virus strains. The assay successfully detected all 94 AI virus strains of 15 different hemagglutinin (HA) subtypes tested while simultaneously differentiating 24 North American H5, 11 Eurasian H5, and 11 H7 strains. Our study demonstrates for the first time that a branched DNA method can detect targets that show a great amount of sequence variation.

DOI: 10.1128/JCM.01979-09
Version: za2963e q8za5 q8zb3 q8zc3 q8zdd q8ze7 q8zf1 q8zg3

Similar articles you may find interesting…

  1. Noncoherent Trellis Coded Quantization: A Practical Limited Feedback Technique for Massive MIMO Systems

    arXiv:1305.4976 [cs.IT] 21 May 2013

    We propose Noncoherent trellis-coded quantization (NTCQ), whose encoding complexity scales Linearly with the number of antennas. The approach exploits the duality between Source encoding in a Grassmannian manifold and noncoherent sequence detection. Furthermore, since noncoherent detection can be re...
  2. On convergence to the Denjoy-Wolff point in the parabolic case

    arXiv:1305.5353 [math.CV] 23 May 2013

    Based on dynamical behavior, all self-maps of the unit disk in the complex plane can be classified as elliptic, hyperbolic or parabolic. The parabolic case is the most complicated one and branches into two subcases - zero-step and non-zero-step cases. In several dimensions, zero-step and non-zero s...
  3. One-point remapping of Lagrangian perturbation theory in the mildly non-linear regime of cosmic structure formation

    arXiv:1305.4642 [astro-ph.CO] 20 May 2013

    We propose two methods Designed to improve the correspondence between LPT and full numerical Simulation of gravitational large-scale structure formation, in the mildly Non-linear regime. We develop a computationally fast and flexible tool for a Variety of cosmological applications. Our methods are b...