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REPORTS > KEYWORD > DISTRIBUTION TESTING:
Reports tagged with distribution testing:
TR25-198 | 27th November 2025
Ari Biswas, Mark Bun, Clément Canonne, Satchit Sivakumar

Interactive Proofs For Distribution Testing With Conditional Oracles

We revisit the framework of interactive proofs for distribution testing, first introduced by Chiesa and Gur (ITCS 2018), which has recently experienced a surge in interest, accompanied by notable progress (e.g., Herman and Rothblum, STOC 2022, FOCS 2023; Herman, RANDOM~2024).
In this model, a data-poor verifier determines whether a ... more >>>


TR25-199 | 26th November 2025
Clement Canonne, Sam Polgar, Aditya Singh, Aravind Thyagarajan, Qiping Yang

Verification of Statistical Properties: Redefining the Possible

We revisit the setting of Interactive Proof Systems for Distribution Testing, introduced by Chiesa and Gur (2018), showing that a simple twist on the task requirements may lead to dramatic improvements, allowing verifiers with constant sample complexity.

We define and investigate the multi-prover and zero-knowledge versions of these interactive proof ... more >>>


TR25-200 | 4th December 2025
Oded Goldreich, Guy Rothblum

On doubly-sublinear interactive proofs for distributions

Revisions: 1

Interactive proofs of proximity for distributions, introduced by Chiesa and Gur (ITCS18) and extensively studied recently by Herman and Rothblum (STOC22, FOCS23, FOCS24}, offer a way of verifying properties of distributions using less samples than required to test these properties.

We say that such an interactive proof system is {\sf ... more >>>


TR25-201 | 4th December 2025
Oded Goldreich, Tal Herman, Guy Rothblum

Interactive proof systems for FARNESS

We consider interactive proofs for the promise problem, called $\epsilon$-FARNESS, in which the yes-instances are pairs of distributions over $[n]$ that are $\epsilon$-far from one another, and the no-instances are pairs of identical distributions.
For any $t\leq n^{2/3}$, we obtain an interactive proof in which the verifier has sample complexity ... more >>>




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