How Does a CPU Work?
From billions of microscopic silicon switches to the instruction cycle that powers every computer.
Walk through 21+ interactive technology exhibits. Dive into microarchitectures, RF waveforms, and silicon circuits at your pace.
From billions of microscopic silicon switches to the instruction cycle that powers every computer.
Converting digital packets into invisible electromagnetic radio waves and back across the airwaves.
How millions of microscopic silicon photodiode wells transform streams of photons into crisp digital pictures.
Trapping microscopic electron charges inside 3D NAND floating gates with zero moving parts.
Harnessing thousands of parallel arithmetic cores to calculate millions of pixels in milliseconds.
The global, hierarchical phonebook of the internet translating human names into machine IP addresses.
Short-range 2.4 GHz wireless communication using Frequency-Hopping Spread Spectrum.
Volatile memory storing gigabytes of active working data using microscopic capacitor charge leaks.
The electrochemical shuttle moving lithium ions between graphite and metal oxide electrodes.
Detecting human finger electrical capacitance through transparent conductive indium tin oxide grids.
Matrix multiplications, activation functions, and backpropagation gradient descent.
Pinpointing your exact position on Earth to within 1 meter using atomic clocks in orbit and Einstein's relativity.
Destroying unwanted environmental noise using inverted anti-phase soundwaves in milliseconds.
Organic self-emissive subpixels delivering true infinite contrast without a bulky backlight.
Projecting 30,000 invisible infrared dots to construct a millimeter-precise mathematical 3D mesh of your face.
Inductive magnetic coupling at 13.56 MHz transmitting tokenized cryptographic payment payloads in milliseconds.
Etching 50 billion nanoscopic Gate-All-Around (GAAFET) transistors onto silicon using 13.5nm extreme ultraviolet plasma lasers.
Harnessing quantum superposition, entanglement, and Hadamard gates to solve exponential calculations in seconds.
Microscopic silicon springs, proof masses, and comb-finger capacitors detecting movement and gravity inside your phone.
Carrying 99% of global internet traffic across ocean floors at 200,000 km/s using Total Internal Reflection and DWDM lasers.
Multi-layer FR4 circuits, differential trace impedance, and multi-phase VRMs routing terabits of data in picoseconds.