= Q(25, 'ncoulomb') charge_1
pymaterial
An material science package
Install
pip install pymaterial
Why Material Science?
How do we know what material to use?
Experiments
- What the world will looks like if electron don’t follow Pauli Exclusion Principle
- For hunting life on a new planet, does carbon actually essential?
- Why water liquid?
Example 1: Why… \(\mathrm{H}_2\mathrm{O}\)?
= Q(-75, 'ncoulomb') charge_2
= Q(3, 'centimeter') interatomic_separation
charge_1, charge_2, interatomic_separation
(25 <Unit('nanocoulomb')>, -75 <Unit('nanocoulomb')>, 3 <Unit('centimeter')>)
The attractive force between charge 1 and charge 2
= AttractiveForce().magnitude(charge_1, charge_2, interatomic_separation) attractive_force
attractive_force
0.018724066233877443 newton
AttractiveForce().constant_a(charge_1, charge_2)
1.68516596104897×10-5 meter2 newton
The attractive energy \(E_A\) between charge 1 and charge 2
= AttractiveEnergy().magnitude(charge_1, charge_2, interatomic_separation) attractive_energy