| Sub Cat | Reactivity | Sensitivity | Detection Range | |
| MTS-1123-HM863 | Human | User optimized | Inquiry | |
| MTS-1123-HM864 | Dog | 0.01 ng/mL | Inquiry | |
| MTS-1123-HM865 | Rat | 1 pg/mL | Inquiry | |
| MTS-1123-HM866 | Mouse | 4.5 pg/mL | Inquiry | |
| MTS-1123-HM867 | Cat | 0.02 ng/mL | Inquiry | |
| MTS-1123-HM868 | Chicken | 1.6 pg/mL | Inquiry | |
| MTS-1123-HM869 | Horse | 9 pg/mL | Inquiry | |
| MTS-1123-HM870 | Cow | User optimized | Inquiry |
This kit is described as a sandwich ELISA with qPCR detection and semi‑quantitative measurement. In practice, it pairs immunocapture specificity with nucleic-acid amplification-based readout for enhanced detection behavior in certain setups. Because it's labeled semi‑quantitative, we recommend using it for relative comparisons (treated vs. control) and consistent internal controls rather than absolute concentration claims unless validated in your hands.
Semi‑quantitative approaches are useful when your primary goal is comparative profiling across conditions or time points, especially if you expect low abundance and want a different detection modality than absorbance. This kit is positioned for semi‑quantitative IL‑10 measurement via qPCR. For pathway studies or screening where fold-change is more meaningful than exact pg/mL, this can be a practical choice.
We suggest running a small bridging study: test the same sample set with your existing quantitative ELISA and this qPCR-detection, semi‑quantitative sandwich format. Compare rank ordering and fold-changes across conditions, and confirm linearity across a dilution series. If trends match while absolute values differ, that's expected with modality changes; you can then standardize reporting around relative changes for consistency.
For Research Use Only. Do Not Use in Food Manufacturing or Medical Procedures (Diagnostics or Therapeutics). Do Not Use in Humans.