YSK12-MEND particle size remained stable in Opti-MEM I, whereas RNAiMAX aggregated substantially under the same medium conditions.
· pp. 5–6 (PDF pp. 5–6), Fig. 5.sales@dcchemicals.com
YSK12-C4 (YSK12-MEND)
Formulation & Performance
Literature-reported formulation composition
| Component | Reported molar ratio | Role |
|---|---|---|
| YSK12-C4 | 85 | Ionizable lipid |
| Cholesterol | 15 | Sterol |
| PEG-DMG | 1 | PEG lipid |
| Reported ratio sum | Not reported | Original ratio retained |
Literature-reported performance for the cited formulation
Additional reported findings
The administration route shown above was used in the cited study and is not a clinical-use instruction or recommendation by DC Chemicals.
All formulation and performance values are specific to the cited YSK12-MEND preparation, cargo, cell lines and comparator conditions.
Published study figures
Original publication figures illustrating the cited formulation and biological results. Select an image to view it at full size.

Figure 1a-d — GAPDH knockdown across four human immune cell lines
GAPDH knockdown across four human immune cell lines. Jurkat, THP-1, KG-1 and NK92 cells; 1–30 nM siRNA; 24 h; n=3–4.
Nakamura T, Kuroi M, Fujiwara Y, et al. (2016). Small-sized, stable lipid nanoparticle for the efficient delivery of siRNA to human immune cell lines. Original article / figure · CC BY 4.0. Original figure reproduced without changes.

Figure 2a-d — Cell viability measured alongside the YSK12-MEND transfection study
Cell viability measured alongside the YSK12-MEND transfection study. Jurkat, THP-1, KG-1 and NK92 cells; 1–100 nM siRNA; 24 h; WST-1 assay; n=3.
Nakamura T, Kuroi M, Fujiwara Y, et al. (2016). Small-sized, stable lipid nanoparticle for the efficient delivery of siRNA to human immune cell lines. Original article / figure · CC BY 4.0. Original figure reproduced without changes.