Onflux Labs starts, funds, and keeps companies built on results nobody was looking for.

Four times at Bell Labs, the noise was the finding.

Each began as a measurement that disagreed with what everyone expected. Each needed a second reader to say what it meant.

  1. 1927

    Clinton Davisson and Lester Germer

    Looking for
    How electrons bounce off nickel, to build better vacuum tubes.
    Got
    A lab accident recrystallized the nickel. At 54 volts the electrons came back in a sharp spur at 50°.
    Read by
    At a 1926 Oxford meeting, Davisson heard Max Born cite his own earlier curves as evidence for de Broglie’s waves.

    Electrons are waves. Nobel Prize, 1937.

    electronbeam innickel crystal40 V, 68 Vno spike54 V50°spike at 50°electrons bounce off in onedirection, the way waves dofarther from the corner =more electrons at that angle
    Fig. 3, redrawn. Davisson and Germer, Bell System Technical Journal, 1928.
  2. 1932

    Karl Jansky

    Looking for
    The sources of static on transatlantic radiotelephone calls.
    Got
    Under the thunderstorms, a faint steady hiss. It peaked each time his rotating antenna faced the same patch of sky, about four minutes earlier every day.
    Read by
    A colleague who studied astronomy, A. M. Skellett, saw that four minutes a day is the gap between solar time and star time.

    Radio waves from the center of the Milky Way. Radio astronomy begins.

    NWSENWSENWSENWSENWSENWSENWSENWSENWSE61218signal, dBantenna faces the Milky Way6:00 PM.7:00 PM.8:00 PM.9:00 PM.
    His record for September 16, 1932, 6 to 9 PM, redrawn. Proc. IRE, 1933.
  3. 1954

    Daryl Chapin, Calvin Fuller and Gerald Pearson

    Looking for
    Power for telephone equipment in remote, humid places. The best photocells turned under 1% of sunlight into electricity.
    Got
    Silicon that Fuller had doped for transistor work put out a strong current when Pearson put it under a lamp. Its response (A) sat across the brightest part of sunlight (B).
    Read by
    Pearson told his friend Chapin to stop working on selenium.

    The silicon solar cell, at 6%.

    0.30.40.50.60.70.80.91.01.11.200.20.40.60.81.0B sunlightA silicon cellCOLOR OF LIGHT (WAVELENGTH, MICRONS)
    Fig. 1, redrawn. Chapin, Fuller and Pearson, Journal of Applied Physics, 1954.
  4. 1964

    Arno Penzias and Robert Wilson

    Looking for
    A quiet radio antenna for astronomy, with every source of noise accounted for.
    Got
    After every known source was subtracted, 3.5 degrees of noise was left, from every direction, in every season. They evicted the pigeons nesting in the horn. The noise stayed.
    Read by
    Bernard Burke told them a Princeton group was predicting heat left over from the Big Bang.

    The cosmic microwave background. Nobel Prize, 1978.

    Antenna temperature budget at 4080 Mc/s, degrees Kelvin
    Noise measured, pointing straight up6.7 ± 0.3
    minus the atmosphere2.3 ± 0.3
    minus losses in the antenna.8 ± 0.4
    minus pickup from the ground< .1
    Left over, from everywhere3.5 ± 1.0
    Their noise budget at 4080 Mc/s, in °K. Astrophysical Journal, 1965.

We build and hold companies that start from a second reading.

We start

Every company we start begins with a result that did not fit the curve, and someone who knew what it meant.

We hold

We own for the long run. No fund cycle and no exit date on anything we start.

We keep the record

Negative results, raw data, and lab notes stay readable, so the next anomaly is not filed away as noise.

Found something that doesn’t fit?

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