Oxford Nanopore long-read sequencing offers advantages over Illumina short reads for the
identification and characterization of bacterial pathogens for outbreak detection and …

Abstract The MinION sequencer (Oxford Nanopore Technologies) is a paradigm shifting
device allowing rapid, real time long read sequencing of nucleic acids. Yet external …

The long‐read sequencing platform MinION, developed by Oxford Nanopore Technologies,
enables the sequencing of bacterial genomes in resource‐limited settings, such as field …

Nanopore DNA strand sequencing has emerged as a competitive, portable technology.
Reads exceeding 150 kilobases have been achieved, as have in-field detection and …

Recent advances in nanopore sequencing technology have led to a substantial increase in
throughput and sequence quality. Together, these improvements may permit real-time …

Next-generation sequencing has evolved as a powerful tool, with applications that extend
from diagnosis to public health surveillance and outbreak investigations. Short-read …

US public health agencies have employed next-generation sequencing (NGS) as a tool to
quickly identify foodborne pathogens during outbreaks. Although established short-read …

Aim Identify basic requirements for a metagenomic nanopore sequencing protocol
permitting frequent application in a clinical microbiology daily routine diagnostic setting …

Identification of bacteria causing tissue infections can be comprehensive and, in the cases of
non-or slow-growing bacteria, near impossible with conventional methods. Performing …

Emerging and re-emerging infectious diseases have given rise to a large number of human
infections, morbidity, and heavy economic burden, including the Middle East respiratory …