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The Chemistry Behind Large-Scale Battery Storage
Lesson1 of 1 in this unit
SecondaryYear 12ScienceChemistryEnvironmentalEnergy
Lesson Summary
Students will explore the chemical principles underlying electrochemical cells and apply this understanding to evaluate and recommend advanced battery technologies such as Lithium-ion and Vanadium Flow batteries for Queensland's renewable energy transition. Through research and collaborative activities, students will connect their knowledge of redox reactions to real-world energy storage solutions, emphasising the critical role of chemistry in sustainable energy practices.
Learning intentions
Students will:
- investigate the production of electricity from electrochemical cells by exploring the chemistry behind advanced battery technologies and evaluating their role in Queensland's transition to renewable energy.
Success criteria
Students can:
- describe the key components and functions of electrochemical cells
- evaluate different battery technologies, such as Lithium-ion and Vanadium Flow batteries, by analysing their chemical properties, advantages, and limitations.
- recommend a suitable battery technology for Queensland's energy transition based on a detailed assessment of chemical principles, environmental impact, and economic considerations.
Lesson Guides and Printables
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