- #1
Ahmed Abdullah
- 203
- 3
I want to know what is happening at micro-level, how macroscopic tumbling of the solution can actually break a chemical bond?
Borek said:Different parts of the vortex move at different speeds, DNA molecules are quite long, if different parts of the molecule move at different speeds, it means forces acting on the molecule.
Borek said:Different parts of the vortex move at different speeds, DNA molecules are quite long, if different parts of the molecule move at different speeds, it means forces acting on the molecule.
When a sample containing DNA is placed in a vortex and spun at high speeds, the force generated can cause shearing and breaking of the DNA strands. This is because the DNA strands are delicate and can easily be damaged by physical forces.
No, there are other ways in which DNA can be damaged, such as exposure to radiation, chemicals, or extreme temperatures. However, vigorous vortex-ing is a common laboratory technique that can cause damage if not done carefully.
To prevent DNA damage during vortex-ing, it is important to use the correct speed and time parameters for the sample being tested. It is also recommended to use specialized tubes or microcentrifuge tubes designed for vortex-ing, as they can help protect the DNA from excessive shearing forces.
The consequences of DNA damage can vary, depending on the extent of the damage. In some cases, it may lead to inaccurate or inconclusive results in experiments, while in others it may cause mutations or completely destroy the DNA, rendering it unusable for further analysis.
The duration of vortex-ing can also play a role in DNA damage. While shorter vortex-ing times may not significantly affect DNA, longer periods of vortex-ing can increase the risk of damage. It is important to follow the recommended protocols and time limits for vortex-ing to minimize the risk of DNA damage.