Challenge

Week 1 Understanding Different Battery Chemistry

Battery Type Annode Material Cathode Material Cathode Reaction Anode Reaction Description
LCO Graphite Lithium Cobolt Oxide (LiCoO2) LiCoO2<->Li+ + e- + CoO2 C6 + Li+ + e- <->LiC6 During charging, Lithium Cobolt Oxide breaks into CoO2, Li+ and electron. The Li+ ion moves through the electrolyte and electron flows throw the electrical path between anode and cathode, at anode the combines with carbon and form LiC6.
During discharge LiC6 breaks into Li+, Carbon and Electron, the Li+ ion passes back to cathode through electrolyte and electron flows back through the electric connection. At cathode they combine with the and reforms the Lithium Cobolt Oxide
LMO Graphite Lithium Manganese Di-Oxide(LiMn2O4) Li Mn2O4<->Li+ + e- + Mn2O4 C6 + Li+ + e- <->LiC7 During charging, Lithium Manganese Di-Oxide breaks into Mn2O4, Li+ and electron. The Li+ ion moves through the electrolyte and electron flows throw the electrical path between anode and cathode, at anode the combines with carbon and form LiC6.
During discharge LiC6 breaks into Li+, Carbon and Electron, the Li+ ion passes back to cathode through electrolyte and electron flows back through the electric connection. At cathode they combine with the and reforms the Lithium Cobolt Oxide
NCA Graphite Lithium Nickel Cobalt Aluminum Oxide (LiNiCoAlO2) Li NiCoAlO2<->Li+ + e- + NiCoAlO2 C6 + Li+ + e- <->LiC8 During charging, Lithium Nickel Cobalt Aluminum Oxide breaks into NiCoAlO2, Li+ and electron. The Li+ ion moves through the electrolyte and electron flows throw the electrical path between anode and cathode, at anode the combines with carbon and form LiC6.
During discharge LiC6 breaks into Li+, Carbon and Electron, the Li+ ion passes back to cathode through electrolyte and electron flows back through the electric connection. At cathode they combine with the and reforms the Lithium Cobolt Oxide
NMC Graphite Lithium Nickel Manganese Cobalt Oxide (LiNiMnCoO2) Li NiMnCoO2<->Li+ + e- + NiMnCoO2 C6 + Li+ + e- <->LiC9 During charging, Lithium Nickel Manganese Cobalt Oxide breaks into NiMnCoO2, Li+ and electron. The Li+ ion moves through the electrolyte and electron flows throw the electrical path between anode and cathode, at anode the combines with carbon and form LiC6.
During discharge LiC6 breaks into Li+, Carbon and Electron, the Li+ ion passes back to cathode through electrolyte and electron flows back through the electric connection. At cathode they combine with the and reforms the Lithium Cobolt Oxide
LFP Graphite Lithium Iron Phosphate(LiFePO4) LiFePO4<->Li+ + e- + FePO4 C6 + Li+ + e- <->LiC6 During charging, Lithium Iron Phosphate breaks into FePO4, Li+ and electron. The Li+ ion moves through the electrolyte and electron flows throw the electrical path between anode and cathode, at anode the combines with carbon and form LiC6.
During discharge LiC6 breaks into Li+, Carbon and Electron, the Li+ ion passes back to cathode through electrolyte and electron flows back through the electric connection. At cathode they combine with the and reforms the Lithium Cobolt Oxide
LTO Lithium Titanate (Li2TiO3) Lithium Manganese Di-Oxide(LiMn2O4) or Lithium Nickel Manganese Cobalt Oxide (LiNiMnCoO2)
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