Papers where the original authors have engaged with our plain-language explanation.
For every paper on this page, at least one of the original authors has seen our plain-language explanation and engaged with it — either confirming it reads accurately or requesting corrections that we then applied. An endorsement does not mean the authors formally approve every sentence, but it does mean the explanation has passed the eyes of the people who wrote the paper.
1362 papers reviewed by authors · 1001–1010 / 1362
This paper proposes a novel Fuzzy Convolution Neural Network (FCNN) framework that converts tabular data into fuzzy membership-based images to effectively leverage deep learning for classification, demonstrating competitive or superior performance compared to traditional machine learning algorithms on complex noisy datasets.
This paper proposes that black holes function as condensates of spacetime's thermodynamic degrees of freedom, offering a coherent interpretation of their mass, entropy, and interior structure that is supported by recent black hole merger observations.
This paper presents complete analytic solutions for coherent couplers with arbitrary parameters using Weierstrass elliptic functions, identifies Jensen's coupler as a special case, and establishes a projection from the three-mode degenerate four-wave mixing system to the two-mode coupler, revealing a deeper connection to integrable parametric processes and Kronecker theta functions.
This paper proposes that thermal relic dark matter can remain viable despite ultraweak couplings to the Standard Model by annihilating primarily into a hidden "darker" sector through strong hidden-concealed interactions, a mechanism demonstrated via coupled Boltzmann equations in two specific gauge models.
This paper demonstrates that combining regular primordial black hole metrics with the memory burden effect significantly suppresses Hawking radiation, thereby opening a new mass window of -- g where such black holes can constitute all dark matter without violating Big Bang nucleosynthesis constraints.
This paper introduces Intent-Controlled Partial Optimal Transport (IC-POT), a novel framework that generalizes partial optimal transport by replacing global mass rejection with pointwise, intent-driven rejection costs based on side information, thereby enabling more structured and reliable matching in applications like positive-unlabeled learning and multi-modal satellite data analysis.
This paper establishes unified lower bounds on the mean squared error for distributed quantum sensor fusion under Byzantine faults and decoherence, demonstrating how entanglement visibility and fault tolerance mechanisms enable a continuous transition from the standard quantum limit to the Heisenberg limit while validating these theoretical scaling laws through simulations and real-world sensor data.
The paper introduces WARC-Bench, a novel benchmark using Web ARChive files to evaluate multimodal AI agents on complex GUI subtasks, demonstrating that while current frontier models struggle, open-source models significantly improve through supervised fine-tuning and reinforcement learning with verifiable rewards to achieve competitive performance.
This paper presents a multiscale ODE model of the 2026 Andes virus outbreak on the MV Hondius that identifies a critical immunopathological feedback loop as the driver of fatal cytokine storms, proposing a Wasserstein-based early-warning score and exogenous IL-10 supplementation as the most effective intervention to prevent vascular permeability failure.
This paper establishes a systematic quantum field-theoretic framework using Matsubara Green's functions to describe nonlinear Ohmic responses in second-harmonic generation and bilinear magnetoelectric effects, revealing a previously unrecognized intrinsic conductivity driven by band geometry that is observable in materials with high Fermi velocity and narrow band gaps.