
Thermodynamics of Refractory Powder Passivation Surface Oxide Reduction
Controlling oxygen partial pressure and furnace dew point during thermal reduction strips surface oxides without triggering particle necking or tap density loss.

Controlling oxygen partial pressure and furnace dew point during thermal reduction strips surface oxides without triggering particle necking or tap density loss.

Controlled oxidative cross-linking of pitch precursors balances carbon yield and closed porosity to optimize hard carbon capacity and initial coulombic efficiency.

Hydrostatic pressure elevates lithium chemical potential and raises nucleation energy barriers, suppressing destructive phase fracture in encapsulated silicon anode powders.

Continuous pyrolysis delivers lower manufacturing costs and stable hard carbon yields, whereas chemical pre-sodiation boosts efficiency at higher scrap and reagent expenses.
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