Ribonuclease H-cleavable and recombinase-quenching fluorescent probes for the real-time detection of strand invasion based amplification
Literature Information
Sonja Elf, Kevin E. Eboigbodin
SIBA is an established nucleic acid amplification method that is used as an alternative to polymerase chain reaction (PCR). SIBA reactions are performed at low and constant temperature, obviating the need for the sophisticated instruments required for time-consuming thermal cycling. The products of SIBA reactions are typically visualized using intercalating dyes that are limited to detection of a single target per reaction tube. In this study, we developed two new alternative probe chemistries, RNase H-cleavable and recombinase-quenching probes, for real-time detection of SIBA reaction products. The performances of RNase H-cleavable and recombinase-quenching probes were compared with those of an intercalating dye (SYBR Green) and previously developed LNA probe chemistry. All detection chemistries exhibited relatively high analytical sensitivity and specificity and were compatible with a rapid method for processing of clinical specimens. The sensitivities of SYBR Green, LNA, RNase H-cleavable, and recombinase-quenching probes for detection of group A streptococcus (GAS) from clinical specimens were 100%, 96%, 100%, and 100%, respectively. LNA probe chemistry displayed the weakest performance in terms of sensitivity and detection time. All chemistries detected GAS from clinical specimens with 100% specificity and allowed for rapid detection of GAS from clinical specimens within 15 min (from sample processing to results). The newly developed detection chemistries displayed superior performance to the previous chemistries and could be used to facilitate rapid diagnosis of infectious diseases in point-of-care or central laboratory settings.
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Analytical Methods

Analytical Methods welcomes early applications of new analytical and bioanalytical methods and technology demonstrating the potential for societal impact. We require that methods and technology reported in the journal are sufficiently innovative, robust, accurate, and compared to other available methods for the intended application. Developments with interdisciplinary approaches are particularly welcome. Systems should be proven with suitably complex and analytically challenging samples. We encourage developments within, but not limited to, the following technologies and applications: global health, point-of-care and molecular diagnostics biosensors and bioengineering drug development and pharmaceutical analysis applied microfluidics and nanotechnology omics studies, such as proteomics, metabolomics or glycomics environmental, agricultural and food science neuroscience biochemical and clinical analysis forensic analysis industrial process and method development













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