High-Efficiency DNA Transfection

Polymer-based reagent for DNA and RNA delivery, supplied with a separate enhancer.
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Hieff Trans Booster is a polymer-based DNA/RNA transfection reagent supplied with a separate enhancer. YEASEN provides application data for cell lines and selected primary cells.
Hieff Trans Booster is YEASEN's next-generation polymer-based DNA/RNA transfection reagent. The manufacturer describes a nucleic-acid-protective delivery design and provides data in established cell lines including HeLa and 293T, and selected primary or difficult-to-transfect models. Its listed payloads are DNA, mRNA, siRNA, miRNA and ASO. The kit supplies Booster reagent and an equal volume of a separate enhancer. Match the evidence to your payload and cell model before evaluation.

Product page and linked manual checked on . Manual revision: EN20260916. Manufacturer claims are not independent validation or a performance guarantee.
Comparing another brand? Lipofectamine 3000 Alternative UK.
Source: YEASEN product specifications. Product information recorded on . Follow the current manufacturer instructions. Product documents and sources.
| Catalogue number | Pack size | Price ex VAT | Price incl. VAT |
|---|---|---|---|
| 40801ES01 | 100 µL | £55.70 | £66.84 |
| 40801ES03 | 0.75 mL | £264.67 | £317.60 |
| 40801ES04 | 1.5 mL | £499.33 | £599.20 |
Prices are in GBP. VAT-inclusive amounts use 20% VAT. Delivery is calculated at checkout. Select a pack size to check availability or request a quotation.
| Formulation | Polymer-based transfection reagent |
|---|---|
| Listed nucleic acids | DNA, mRNA, siRNA, miRNA and ASO |
| Supplied enhancer | Equal volume to Booster reagent |
| Enhancer use | DNA workflow; not required for mRNA or siRNA in manual EN20260916 |
| Component code | Name | 40801 ES 01 | 40801 ES 03 | 40801 ES 04 |
|---|---|---|---|---|
| 40801-A | Booster DNA/RNA Transfection Reagent | 100 μL | 0.75 mL | 1.5 mL |
| 40801-B | Transfection Enhancer | 100 μL | 0.75 mL | 1.5 mL |
Find your cell model, DNA or RNA type. Open a case to see the figures and test conditions.
Select a case to view its data





Figure 7. Transfection of plasmid DNA into primary porcine alveolar macrophages using Booster DNA&RNA Transfection Reagent versus L*3000.
View official case PDF · page 8Figure 8. Transfection of plasmid DNA into mouse primary fibroblasts using Booster DNA&RNA Transfection Reagent versus A*8000.
View official case PDF · page 8Figure 9. Transfection of plasmid DNA into Mouse liver primary cells using Booster DNA&RNA Transfection Reagent versus L*3000.
View official case PDF · page 9Figure 10. Transfection of mRNA into Mouse primary neural stem cells using Booster DNA&RNA Transfection Reagent versus B*8008. The results showed that the transfection efficiency of Yeasen Booster transfection reagent was close to 100%.
View official case PDF · page 9Figure 11. Transfection of plasmid DNA into Primary skin fibroblasts using Booster DNA&RNA Transfection Reagent. The result showed that Yeasen Booster transfection reagent can efficiently transfect.
View official case PDF · page 10Figure 12. Transfection of plasmid DNA into Primary human pulmonary artery endothelial cells under hypoxic and normal conditions using Booster DNA&RNA Transfection Reagent. The result showed that Yeasen Booster transfection reagent can efficiently transfect.
View official case PDF · page 10Figure 13. siRNA transfection in primary bone marrow–derived macrophages using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent. Western blot results show that Yeasen Booster achieves more efficient gene knockdown.
View official case PDF · page 11Figure 14. Plasmid DNA transfection in primary chicken embryo fibroblasts using Booster DNA&RNA Transfection Reagent versus L*3000 transfection reagent.
View official case PDF · page 11Figure 15. Plasmid DNA transfection in THP-1 using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 12Figure 16. Plasmid DNA transfection in Jurkat using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 12Figure 17. Plasmid DNA transfection in sf9 using Booster DNA&RNA Transfection Reagent versus L* 2000 transfection reagent.
View official case PDF · page 13Figure 18. Plasmid DNA transfection in CHO-S using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 13Figure 19. Plasmid DNA transfection in A549 using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 14Figure 20. Plasmid DNA transfection in T24 using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 14Figure 21. Plasmid DNA transfection in Hela using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 15Figure 22. Plasmid DNA transfection in Mc38 using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 15Figure 23. Plasmid DNA transfection in AGS using Booster DNA&RNA Transfection Reagent versus L* 2000 transfection reagent. The result shows that the L* 2000 reagent exhibits no visible difference between pre- and post-transfection (endogenous expression, bands shown with enhanced exposure), whereas Booster achieves a clear overexpression effect.
View official case PDF · page 16Figure 24. Plasmid DNA transfection in HepG2 using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 16Figure 25. siRNA transfection in HCT116 cells using Booster DNA&RNA Transfection Reagent versus L*3000. The result demonstrates that Booster achieves a stronger gene knockdown effect.
View official case PDF · page 17Figure 26. siRNA transfection in HGC-27 cells using Booster DNA&RNA Transfection Reagent versus L*3000. The result demonstrates that Booster achieves a stronger gene knockdown effect.
View official case PDF · page 17Figure 27. Plasmid DNA transfection in RAW264.7 cells using Booster DNA&RNA Transfection Reagent. Western blot analysis shows significant overexpression of the target gene after transfection with Booster.
View official case PDF · page 18Figure 28. siRNA transfection in RAW264.7 cells using Booster DNA&RNA Transfection Reagent. The result demonstrates that Booster achieves a stronger gene knockdown effect.
View official case PDF · page 18Figure 29. Plasmid DNA transfection in MC3T3-E1 cells using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 19Figure 30. siRNA transfection in MC3T3-E1 cells using Booster DNA&RNA Transfection Reagent versus L*3000. The result demonstrates that Booster achieves a stronger gene knockdown effect.
View official case PDF · page 19Figure 31. Plasmid DNA transfection in AC16 cells using Booster DNA&RNA Transfection Reagent.
View official case PDF · page 20Figure 32. Plasmid DNA transfection in HaCaT cells using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 20Figure 33. Plasmid DNA transfection in DF-1 cells using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 21Figure 34. Co-transfection of plasmid DNA and mRNA in MFCs cells using Booster DNA&RNA Transfection Reagent versus L* 3000 transfection reagent.
View official case PDF · page 21Figure 35. Plasmid DNA transfection in MACT cells using Booster DNA&RNA Transfection Reagent versus L*3000.
View official case PDF · page 22Figure 36. 15 Kb large fragment plasmid DNA transfection in HEK293 cells using Booster DNA&RNA Transfection Reagent. The results showed that Yeasen Booster transfection reagent had a significant overexpression effect.
View official case PDF · page 22Figure 37. mRNA transfection in 293T cells using Booster DNA&RNA Transfection Reagent. The results showed that Yeasen Booster transfection reagent had a significant overexpression effect.
View official case PDF · page 23Figure 38. 11 Kb large fragment plasmid DNA transfection in 293T cells using Booster DNA&RNA Transfection Reagent versus L*3000.
View official case PDF · page 23Source: YEASEN official product page and linked case documents. These are manufacturer-published examples, not Direct Lab Supplies customer results.
YEASEN lists DNA, mRNA, siRNA, miRNA and ASO. This scope supports shortlisting the reagent, but does not establish identical performance for every payload or cell model.
No. Manual EN20260916 includes it in the DNA workflow but states that it is not required for mRNA or siRNA. Follow that manual for the exact application.
Compare specifications and instructions for your application before switching products.
Matched by 0.1, 0.75 and 1.5 mL pack size. Validate in the intended cell line and protocol.
Manufacturer specificationsReference for a broad DNA and RNA transfection workflow; suitability remains application-specific.
Manufacturer specificationsDNA-transfection workflow reference; formulation and supported nucleic-acid applications differ.
Manufacturer specificationsDNA and siRNA transfection workflow reference; formulation, protocol and supported nucleic-acid range differ.
Manufacturer specificationsExplore Booster and RNAiBoost, their key features and manufacturer application data.
Find product documents, request samples and arrange laboratory orders.
Compare DNA/RNA delivery and RNAi reagents by application and kit contents.
Understand reaction counts, reagent volumes and supplied kit components.
Looking for a Lipo 3000 alternative? Compare Yeasen Booster 40801 with Lipofectamine 3000: kit contents, pack sizes and GBP prices ex VAT.
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