WA-FF Series are based on 4% or 6% highly cross-linked agarose resins with a 90 μm average particle size and 0.3 MPa pressure resistance, offering high flow rates.
WA-HP Series are based on 6% cross-linked agarose with an average particle size of 34 μm. Its smaller particle size provides higher resolution compared to the FF series, making it ideal for interme...
WA-HP Series are based on 6% cross-linked agarose with an average particle size of 34 μm. Its smaller particle size provides higher resolution compared to the FF series, making it ideal for interme...
WA-HP Series are based on 6% cross-linked agarose with an average particle size of 34 μm. Its smaller particle size provides higher resolution compared to the FF series, making it ideal for interme...
WA-HP Series are based on 6% cross-linked agarose with an average particle size of 34 μm. Its smaller particle size provides higher resolution compared to the FF series, making it ideal for interme...
WA-HP Series are based on 6% cross-linked agarose with an average particle size of 34 μm. Its smaller particle size provides higher resolution compared to the FF series, making it ideal for interme...
WA-HP Series are based on 6% cross-linked agarose with an average particle size of 34 μm. Its smaller particle size provides higher resolution compared to the FF series, making it ideal for interme...
WA-HP Series are based on 6% cross-linked agarose with an average particle size of 34 μm. Its smaller particle size provides higher resolution compared to the FF series, making it ideal for interme...
WH resins use a high-rigidity agarose matrix, offering low back pressure and high flow rates. They are well-suited for large-scale purification of biomolecules.
WH resins use a high-rigidity agarose matrix, offering low back pressure and high flow rates. They are well-suited for large-scale purification of biomolecules.
WH resins use a high-rigidity agarose matrix, offering low back pressure and high flow rates. They are well-suited for large-scale purification of biomolecules.
WH resins use a high-rigidity agarose matrix, offering low back pressure and high flow rates. They are well-suited for large-scale purification of biomolecules.
WH resins use a high-rigidity agarose matrix, offering low back pressure and high flow rates. They are well-suited for large-scale purification of biomolecules.
WH resins use a high-rigidity agarose matrix, offering low back pressure and high flow rates. They are well-suited for large-scale purification of biomolecules.
WH resins use a high-rigidity agarose matrix, offering low back pressure and high flow rates. They are well-suited for large-scale purification of biomolecules.
Constructed from fine particles of rigid agarose with an average size of 40 μm, WH-Fine series combine high resolution with low back pressure. It is suitable for both intermediate and polishing ste...
Constructed from fine particles of rigid agarose with an average size of 40 μm, WH-Fine series combine high resolution with low back pressure. It is suitable for both intermediate and polishing ste...
Constructed from fine particles of rigid agarose with an average size of 40 μm, WH-Fine series combine high resolution with low back pressure. It is suitable for both intermediate and polishing ste...
Constructed from fine particles of rigid agarose with an average size of 40 μm, WH-Fine series combine high resolution with low back pressure. It is suitable for both intermediate and polishing ste...
Constructed from fine particles of rigid agarose with an average size of 40 μm, WH-Fine series combine high resolution with low back pressure. It is suitable for both intermediate and polishing ste...
Constructed from fine particles of rigid agarose with an average size of 40 μm, WH-Fine series combine high resolution with low back pressure. It is suitable for both intermediate and polishing ste...
Constructed from fine particles of rigid agarose with an average size of 40 μm, WH-Fine series combine high resolution with low back pressure. It is suitable for both intermediate and polishing ste...
