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The type of call/cc (which may be realized with the 𝜆𝜇-calculus) corresponds with Peirce's Law, which implies LEM. This answer by Pierre-Marie Pédrot explains how Markov's principle can be realized by the Dialectica interpretation or [statically-bound exceptions]statically-bound exceptions.

What other axioms have a computational interpretation?

The type of call/cc (which may be realized with the 𝜆𝜇-calculus) corresponds with Peirce's Law, which implies LEM. This answer by Pierre-Marie Pédrot explains how Markov's principle can be realized by the Dialectica interpretation or [statically-bound exceptions].

What other axioms have a computational interpretation?

The type of call/cc (which may be realized with the 𝜆𝜇-calculus) corresponds with Peirce's Law, which implies LEM. This answer by Pierre-Marie Pédrot explains how Markov's principle can be realized by the Dialectica interpretation or statically-bound exceptions.

What other axioms have a computational interpretation?

Reduce the scope of the question by removing the bit about "difficulties", and acknowledge Pierre-Marie Pédrot's contributions slightly better.
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Famously, theThe type of call/cc (which may be realized with the 𝜆𝜇-calculus) corresponds with Peirce's Law, which implies LEM. Recently I learned through anThis answer by Pierre-Marie Pédrot thatexplains how Markov's principle (which follows from LEM) corresponds with a scheme which can be implemented with statically-bound exceptions.

LEM and call/cc come with severe difficulties from both a proof assistant andrealized by the programming language point of view, so it is often implemented as an axiom instead of a rule; Markov's principle and exceptions might come with fewer difficultiesDialectica interpretation or [statically-bound exceptions].

What other axioms have a computational interpretation? What difficulties might prevent them from being implemented by a proof assistant?

Famously, the type of call/cc (which may be realized with the 𝜆𝜇-calculus) corresponds with Peirce's Law, which implies LEM. Recently I learned through an answer by Pierre-Marie Pédrot that Markov's principle (which follows from LEM) corresponds with a scheme which can be implemented with statically-bound exceptions.

LEM and call/cc come with severe difficulties from both a proof assistant and programming language point of view, so it is often implemented as an axiom instead of a rule; Markov's principle and exceptions might come with fewer difficulties.

What other axioms have a computational interpretation? What difficulties might prevent them from being implemented by a proof assistant?

The type of call/cc (which may be realized with the 𝜆𝜇-calculus) corresponds with Peirce's Law, which implies LEM. This answer by Pierre-Marie Pédrot explains how Markov's principle can be realized by the Dialectica interpretation or [statically-bound exceptions].

What other axioms have a computational interpretation?

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