| DNA/RNA Binding Bead | ||
| BSC-1410 | MagPure Particles | Universal silica magnetic beads for blood/tissue DNA RNA extraction, plasmid Isolation and DNA/RNA clean up. 1.5-5μm size silica beads. |
| BSC-1411 | MagPure Particles N | Magnetic beads for DNA/RNA Isolation from low-input samples, viral DNA/RNA extraction, FFPE DNA extraction. Small-size high surface area beads, 0.2~2μm. |
| BSC-1412 | MagPure Particles G | Magnetic beads for circulating DNA/RNA isolaiton. Fragment DNA optimized beads, 1~1.5μm size. |
| BSC-1413 | MagBind Particles | Magnetic beads for DNA/RNA Isolation from trace samples, FFPE DNA/RNA isolation, size selection in enzymatic and assay workflows. Carboxyl-coated beads, 1μm size. |
| BSC-1414 | MagPure Particles F | Magnetic beads for large volume cell-free DNA/RNA isolation and genomic DNA RNA extraction. Large-volume cfDNA optimized beads, 0.2-1.5μm size. |
DNA/RNA Binding Magnetic Bead Systems
Introduction
- Magnetic bead materials provide a flexible platform for nucleic acid purification across a wide range of laboratory workflows, particularly where scalability, automation compatibility and adjustable binding conditions are required.
- Within the Magen sample preparation portfolio, magnetic beads are engineered with defined surface chemistries, particle size distributions and magnetic response profiles to support DNA and RNA binding under chaotropic or PEG-mediated conditions. Silica-based particles are commonly used for nucleic acid extraction from routine, low-input or fragmented samples, while carboxyl-coated beads are applied in clean-up, size selection and enzymatic workflows such as NGS library preparation.
- Different bead types are optimized for specific processing conditions, including sample input volume, nucleic acid abundance and fragment characteristics. This enables laboratories to select appropriate materials for applications ranging from general DNA/RNA isolation to circulating DNA workflows and post-extraction processing.
- All magnetic bead systems are compatible with both manual protocols and automated platforms, supporting consistent performance across diverse laboratory environments.


