Practice: Using the Born-Haber Cycle, demonstrate the formation of cesium chloride, CsCl, and calculate its enthalpy of formation.
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| Lewis Dot Symbols | 10 mins | 0 completed | Learn |
| Chemical Bonds | 13 mins | 0 completed | Learn Summary |
| Dipole Moment | 12 mins | 0 completed | Learn |
| Octet Rule | 10 mins | 0 completed | Learn |
| Formal Charge | 10 mins | 0 completed | Learn Summary |
| Lewis Dot Structures: Neutral Compounds | 20 mins | 0 completed | Learn Summary |
| Lewis Dot Structures: Sigma & Pi Bonds | 10 mins | 0 completed | Learn |
| Lewis Dot Structures: Ions | 15 mins | 0 completed | Learn |
| Lewis Dot Structures: Exceptions | 17 mins | 0 completed | Learn |
| Lewis Dot Structures: Acids | 15 mins | 0 completed | Learn |
| Resonance Structures | 19 mins | 0 completed | Learn |
| Average Bond Order | 5 mins | 0 completed | Learn |
| Bond Energy | 15 mins | 0 completed | Learn |
| Coulomb's Law | 6 mins | 0 completed | Learn |
| Lattice Energy | 11 mins | 0 completed | Learn Summary |
| Born Haber Cycle | 12 mins | 0 completed | Learn Summary |
In the Born-Haber Cycle, ionic solids are created through the ionization and eventual combination of elements.
The Born-Haber Cycle
Concept #1: Born Haber Cycle
Example #1: When setting up the steps of the Born-Haber Cycle for K2O, how many ionization energies (IE) and how many electron affinities (EA) do you need?
Practice: Calculate the lattice energy for the following formation equation:
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