The isothermal amplification premix ENZD-RT08, developed by Creative Enzymes, was evaluated in LAMP reactions using multiple DNA templates, including Staphylococcus aureus genomic DNA, Escherichia coli genomic DNA, mycoplasma plasmid DNA, and λDNA. Performance was benchmarked against a commercially available reagent (Supplier A) across four template concentration gradients.
Under conditions supporting stable detection, ENZD-RT08 consistently exhibited lower CT values, indicating faster amplification kinetics. In addition, the minimum detectable template concentration was lower across all tested systems, demonstrating enhanced analytical sensitivity. No amplification was observed in all no-template control (NTC) groups, confirming high specificity and minimal background interference.
These results highlight the suitability of ENZD-RT08 as a high-performance isothermal amplification premix mix for rapid and sensitive nucleic acid detection workflows. Data sourced from internal validation studies evaluating LAMP amplification performance across multiple DNA templates and concentration gradients.
To further assess reverse transcription capability within isothermal workflows, ENZD-RT08 was tested in RT-LAMP assays using total RNA extracted from Staphylococcus aureus and 293 cells. Amplification performance was compared with Supplier A under identical reaction conditions and multiple template input levels.
ENZD-RT08 demonstrated consistently faster amplification, reflected by reduced CT values across all detectable template concentrations. In one system, the premix achieved a lower detection limit than the comparator, while in the remaining systems, comparable sensitivity was maintained. Importantly, all NTC reactions showed no detectable amplification, confirming strong specificity in RNA-based detection.
These findings indicate that ENZD-RT08 provides reliable reverse transcription and amplification efficiency within a single isothermal amplification premix mix, supporting stable performance across different RNA sample types. Data sourced from internal validation studies assessing RT-LAMP amplification efficiency, sensitivity, and specificity using diverse RNA templates.