Ever wonder how we separate blood components, isolate DNA, or clarify suspensions in seconds?
It all comes down to one simple force: centrifugal force.
🔬 The principle:
A centrifuge spins samples at high speed, generating a force many times stronger than gravity. This “artificial gravity” pushes heavier particles outward, while lighter components stay closer to the center.
🧪 The process:
1. Samples are placed in balanced tubes.
2. The rotor spins — fast.
3. Dense materials (like cells or pellets) sediment at the tube bottom.
4. Lighter liquids (supernatants) remain on top.
💡 Key components:
· Rotor – holds the tubes
· Motor – drives the spin
· Control system – manages speed, time, and temperature
· Lid & safety lock – ensure secure operation
From medical labs to biotech research, our centrifuges deliver reliable separation — run after run.
✅ Built for precision
✅ Engineered for durability
✅ Designed with safety in mind
Need a centrifuge that fits your workflow? Let’s talk.
Ever wonder how we separate blood components, isolate DNA, or clarify suspensions in seconds?
It all comes down to one simple force: centrifugal force.
🔬 The principle:
A centrifuge spins samples at high speed, generating a force many times stronger than gravity. This “artificial gravity” pushes heavier particles outward, while lighter components stay closer to the center.
🧪 The process:
1. Samples are placed in balanced tubes.
2. The rotor spins — fast.
3. Dense materials (like cells or pellets) sediment at the tube bottom.
4. Lighter liquids (supernatants) remain on top.
💡 Key components:
· Rotor – holds the tubes
· Motor – drives the spin
· Control system – manages speed, time, and temperature
· Lid & safety lock – ensure secure operation
From medical labs to biotech research, our centrifuges deliver reliable separation — run after run.
✅ Built for precision
✅ Engineered for durability
✅ Designed with safety in mind
Need a centrifuge that fits your workflow? Let’s talk.