Periodic Table of Fireworks
Explore the elements behind firework colors, sparks, light, and pyrotechnic chemistry.
Emission and incandescence
Saturated flame colors often involve atomic or molecular emission from compounds or emitting species. Many white, silver, gold, orange, and branching spark effects come from incandescence: hot solid particles glowing as they burn or heat.
Key educational examples
- Li — Lithium: red/crimson lithium emission
- B — Boron: Boron and boron carbide serve as high-energy fuels in specialized pyrolants; boron-containing emitters can contribute green flame in narrow systems.
- C — Carbon: charcoal fuel and glowing carbon-particle
- O — Oxygen: oxygen supplied by oxidizer-associated compounds supports combustion
- F — Fluorine: Specialized fluoropolymer compounds act as fluorine donors in MTV pyrolants for infrared countermeasure flares; elemental fluorine is not a normal display-fireworks ingredient.
- Na — Sodium: intense yellow sodium emission and contamination
- Mg — Magnesium: brilliant white magnesium light and heat contribution
- Al — Aluminum: Aluminum particles produce intense white or silver light as they oxidize.
- P — Phosphorus: White phosphorus has historical and military smoke or incendiary uses where oxidation forms dense phosphorus oxide aerosols.
- S — Sulfur: Fuel-side black-powder component that affects ignition, combustion, odor, and smoke.
- Cl — Chlorine: chlorine-donor for molecular color emitters
- K — Potassium: potassium oxidizer-associated compounds and weak violet/lilac emission
- Ca — Calcium: orange calcium-containing color chemistry
- Ti — Titanium: bright branching white/silver titanium sparks from hot particles
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