How Do Electrons Make Quantum Jumps?

Inside the quantum world

Chapter 1

The birth of the quantum

Chapter 2

Particles behaving badly

Chapter 3

Spooky connections across space

Chapter 4

Quantum tech in your pocket

YOUR GOAL

Master of Inside the quantum world

Ch 1 · The birth of the quantum

Without sudden quantum jumps, your body would collapse in sixteen trillionths of a second.

007skaty Electrons form stable standing waves in fixed orbits instead of sliding downward.

007skaty Quantum Entanglement

We proved the spooky action is real With tape and Birge Hall department scrap!

Our solid ground exists only because quantum jumps stop atoms from collapsing.

007skaty Electrons leap between safe, stable orbits instead of spiraling into the nucleus.

Dr. Katherine Louise Ferguson shapes quantum technology using moldable, lemon-shaped photons.

007skaty A microscopic photon of light alters its lemon shape inside a changing environment.

Since 1900, quantum science reveals that deep space is easier to map than backyard soil.

007skaty A shovel slices through dark soil, exposing glowing atomic bonds beneath the grass.

Our minds invent pink to bridge the gap when red and violet photons strike together

007skaty Red and violet photons hitting an eye to bend the linear rainbow spectrum

The ER=EPR conjecture suggests that microscopic wormholes hold our entire space-time fabric together.

007skaty A glowing wormhole bridges two entangled quantum particles within the fabric of space-time.

Our brains invent the color pink to bridge the gap between red and violet.

007skaty Red and violet light waves flank a green mathematical average and pink glow.

Without instant electron teleportation, your atoms would collapse in a hundredth of a microsecond.

007skaty An electron vanishes from one rigid orbit and instantly appears in another.

Quantum mechanics allowed scientists to actually build Rutherford's impossible 1911 planetary atom.

007skaty Glowing electron spheres orbit a dense central nucleus in a planetary diagram.

Tiny magnetic ripples called magnons connect distant qubits to birth a new quantum era.

007skaty Microscopic spin waves ripple across a thin magnetic bridge connecting two distant particles.

Energy boosts force vibrating electron waves to jump instantly between fixed tracks

007skaty An electron wave wraps around the nucleus and leaps to a wider track

Max Planck discovered that a microscopic staircase of energy keeps our atoms stable.

007skaty A microscopic staircase of locked energy packets stands next to a smooth ramp.

Niels Bohr introduced fixed quantum tracks to keep electrons from collapsing all matter.

007skaty Planets orbiting at any distance contrast with electrons locked on strict quantum tracks.

Untangling quantum connections would actually dissolve the physical fabric of space.

007skaty Tiny quantum threads weave together to form the fabric of space-time.

Engineers protect delicate qubits in quantum computers by freezing particles through rapid observation.

007skaty A delicate quantum particle freezes in place under rapid observation.

Dr. Katherine Ferguson’s pink and black quantum packets explain why our atoms never collapse.

007skaty Vibrant pink and black light packets zoom around like glowing barcodes.

In 1899, Max Planck proved our universe consists of tiny pixels instead of smooth space.

007skaty A single microscopic pixel represents the Planck length, the smallest slice of space.

In 1614, Johannes Kepler linked the Star of Bethlehem to a 7 BC planetary alignment.

007skaty A telescope captures light packets from Saturn's icy rings and Jupiter's churning storms.

Max Planck launched quantum physics with a desperate mathematical hack he hoped was wrong.

007skaty Tiny packets of energy escape from the glowing walls of a hot oven.