Gabor recorded the whole wave, not a sharper image, and invented holography

In 1947 electron microscopes were stuck: spherical aberration of electron lenses capped resolution near 5 Å, and Gabor calculated that gaining one decimal of resolution would mean correcting the objective to four decimals — 'a practically hopeless task'. Working at British Thomson-Houston's research lab in Rugby, he attacked the information problem instead of the glass problem.

His 1948 Nature paper 'A New Microscopic Principle' proposed taking the picture twice: first record an interference pattern of the object wave against a coherent background wave, capturing phase as well as intensity; then shine light through that record to optically reconstruct the wavefront, with no lens in the way at the imaging step.

The catch was that no sufficiently coherent source existed in 1948, so holography stayed a laboratory curiosity until the laser arrived in 1960 — then it exploded into microscopy, data storage, interferometry and the security foils on banknotes.

Skip the lens: record the wave, rebuild the image

It attacked a fourth-root physical limit by bypassing the limiting element entirely rather than refining it.

Phase, the information every detector discarded, became the thing worth recording.

Recording and reconstruction were decoupled in time, so a later invention (the laser) upgraded systems already designed.

The same 'store now, reconstruct later' logic underlies modern computational imaging.

When a component hits a hard physical limit, stop improving it and capture the information it throws away — reconstruction can be deferred to a later, better stage.

Gabor won the 1971 Nobel Prize in Physics for the invention, by which time lasers had made holography practical. Holographic techniques spread into non-destructive testing, displays, anti-counterfeit foils and data storage, and the wavefront-recording principle resurfaced in lensless microscopy and computational photography.