Bifalgorithm post · Brisk · Chapter 1

Why is constructing mathematical proofs an essential skill?

Why is constructing mathematical proofs an essential skill? (Brisk · Chapter 1) — "Finding proofs is an art. In some ways, it’s like programming: you have a se…

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  • Finding mathematical proofs is an art and an essential skill.
  • Proof construction resembles programming.
  • Proofs use precisely defined building blocks.
  • A proof assembles those blocks from axioms to a conclusion.
  • Finding proofs requires skill, patience, practice, and sometimes luck.
  • Some mathematicians pursue extremely difficult proofs for many years.
  • Notable examples demonstrate the difficulty of major proofs.
  • Appel and Haken solved the four-color map problem in 1976.
  • Andrew Wiles solved Fermat’s Last Theorem in 1994.
  • Some important mathematical properties may never be proved.
  • Goldbach’s conjecture states that every even integer is the sum of two primes.
  • The P=NP question asks whether easily verifiable solutions can also be found by an easy algorithm.
  • P=NP remains unproved despite enormous effort, although most computer scientists think the answer is no.
  • Most practicing computer scientists use known results rather than constructing watertight proofs.
  • Theoretically minded students can find proof construction rewarding and useful for investigating deeper properties.
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Why is constructing mathematical proofs an essential skill?

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Brisk

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"Finding proofs is an art. In some ways, it’s like programming: you have a set of building blocks, each one defined very precisely, and your goal is to figure out how to assemble those blocks into a structure that starts with only axioms and ends with your conclusion. It takes skill, patience, practice, and sometimes a little bit of luck. Many mathematicians spend years pursuing one doggedly difficult proof, like Appel and Haken who finally cracked the infamous four-color map problem in 1976, or Andrew Wiles who solved Fermat’s Last Theorem in 1994. Some famous mathematical properties may never have proofs, such as Christian Goldbach’s 1742 conjecture that every even integer is the sum of two primes, or the most elusive and important question in computing theory: does P=NP? (Put very simply: if you consider the class of problems where it’s easy to verify a solution once you have it, but crazy hard to find it in the first place, is there actually an easy algorithm for finding the solution that we just haven’t figured out yet?) Most computer scientists think “no,” but despite a mind-boggling number of hours invested by the brightest minds in the world, no one has ever been able to prove it one way or the other. Most practicing computer scientists spend time taking advantage of the known results about mathematical objects and structures, and rarely (if ever) have to construct a watertight proof about them. For the more theoretically-minded student, however, who enjoys probing the basis behind the tools and speculating about additional properties that might exist, devising proofs is an essential skill that can also be very rewarding."

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