explaining.science on Instagram: "When lithium burns, its atoms react quickly with oxygen in the air, forming lithium oxide and releasing a lot of heat. 🔥⚗️ Lithium is an alkali metal with just one valence electron, which makes it extremely reactive. That’s why it ignites so easily and produces a bright crimson-red flame. 🔴✨ During the reaction, lithium atoms lose electrons while oxygen atoms gain them. The energy released in this process appears as heat and that signature red glow, created wh

Surface � on Instagram: "Electrically Charged Rocks? The Hidden Power of Lithium in Geology As geologists often look at rocks for what they tell them about Earth’s history — but some minerals do more than talk. Some… generate power. One of the most fascinating examples? Lithium-bearing minerals like lepidolite and spodumene, known for their piezoelectric and pyroelectric properties. When certain rocks containing lithium-rich minerals are subjected to mechanical pressure, friction, or temperature

DW Environment on Instagram: "Lithium-ion batteries can be a bit... explodey. Here’s some other elements we can use to make safer batteries. #LithiumBatteries #Lithium #BatteryRecycling #EWaste #DWEnvironment"

Explain Nexus on Instagram: "Lithium is a lightweight, highly reactive metal found in specific rocks like pegmatites and clays. During geological processes—such as magma cooling and fluid movement—lithium becomes concentrated inside minerals. Because lithium atoms hold and release electrical charge very efficiently, these rocks naturally store “electrical potential.” This hidden energy is what makes lithium so valuable for batteries, EVs, and modern electronics. In simple terms: Earth’s geology