Linus Pauling — "I was able to solve this problem because I don't have a computer. I know what I …"
I was able to solve this problem because I don't have a computer. I know what I am doing every step, and the steps go slowly enough that I can think.
I was able to solve this problem because I don't have a computer. I know what I am doing every step, and the steps go slowly enough that I can think.
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Commenting on problem-solving methods
Date: 1991 (The San Francisco Chronicle)
Self-DeprecatingFound in 1 providers: gemini
1 source checked
Working without automation forces deliberate, methodical engagement with every step of a problem. When no tool accelerates the process, the thinker must understand each move rather than delegating cognition. Slowing down becomes an advantage — you catch errors, build intuition, and generate insights that speed and abstraction obscure. The quote argues that the constraint of doing it yourself is precisely what produces genuine understanding rather than just an answer.
Pauling won two Nobel Prizes — Chemistry (1954) for his chemical bond theory, Peace (1962) for anti-nuclear activism. His landmark work on molecular structure, electronegativity, and protein alpha-helices relied on physical model-building and hand calculations. He trusted his own step-by-step reasoning deeply — notably when his flawed triple-helix DNA model showed even great minds can err. His science was inseparably personal, rooted in direct mechanical intuition rather than delegated computation.
By the mid-20th century, mainframe computers were transforming scientific research — IBM machines solved equations that previously took months by hand. In the 1950s–70s, computational chemistry emerged as a distinct field. Scientists increasingly delegated calculation to machines, accelerating research but distancing themselves from the mechanics. Pauling's comment cuts against that trend, asserting genuine scientific insight requires the friction of manual understanding — a pointed stance as automation reshaped how knowledge was produced.
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