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Thesis Tide

Thesis Tide ranks papers based on their relevance to the fields, with the goal of making it easier to find the most relevant papers. It uses AI to analyze the content of papers and rank them!

Large language models (LLMs) under-perform on low-resource languages due to limited training data. We present a method to efficiently collect text data for low-resource languages from the entire Commo...

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The article addresses a significant gap in NLP concerning low-resource languages by providing an innovative method for data aggregation and model fine-tuning, which are critical to enhancing LLM performance in underrepresented languages. The methodological rigor and practical applications make it valuable for both current and future research.

This note studies numerical methods for solving compositional optimization problems, where the inner function is smooth, and the outer function is Lipschitz continuous, non-smooth, and non-convex but ...

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The paper presents a focused study on optimization methods for a specific class of problems that are becoming increasingly relevant in various applications, such as machine learning and operations research. The novelty lies in tackling non-smooth, non-convex optimization problems with structured properties, and the proposed methods are both rigorous in derivation and applicable to practical scenarios, enhancing their potential to impact future research. The clarity in addressing two distinct structural cases further strengthens its contribution to the field.

Estimation of the Average Treatment Effect (ATE) is a core problem in causal inference with strong connections to Off-Policy Evaluation in Reinforcement Learning. This paper considers the problem of a...

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The study addresses a crucial issue in causal inference with significant implications for adaptive treatment allocation, demonstrating substantial improvements over existing techniques. The methodological rigor shown through detailed comparisons and the introduction of the ClipSMT algorithm sets a strong foundation for future research. Its practical applicability is enhanced by empirical validation through simulations, revealing its potential for broad adoption in relevant fields.

We introduce a new curvature condition for high-codimension submanifolds of a Riemannian ambient space, called quasi-parallel mean curvature (QPMC). The class of submanifolds with QPMC includes all CM...

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The introduction of a new curvature condition (QPMC) and its application to geometric flows and bubblesheets provides a novel perspective in differential geometry. The work not only advances understanding in this specific geometry area but potentially aids future research in geometrical analysis and mathematical physics by addressing high-curvature regions. The methodological rigor is demonstrated through the application of QPMC to establish new results about the canonical foliation of submanifolds, making the findings relevant and robust.

This study investigates the absolute stability criteria based on the framework of integral quadratic constraint (IQC) for feedback systems with slope-restricted nonlinearities. In existing works, well...

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This article addresses a significant gap in absolute stability analysis by extending existing methods with new conditions derived from duality theory of LMIs, which adds novel contributions to both theoretical and practical aspects of control systems. The rigorous methodological framework and application through numerical examples enhance its relevance and utility in the field.

Single-frequency emission from an accretion disk around a black hole is broadened into a line profile due to gravitational redshift and the motion of the disk's particles relative to the observer....

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This article is highly relevant due to its exploration of the morphology of relativistically broadened line emissions, which is crucial for understanding accretion disks around black holes. The analytical approach to deciphering line profile features and their dependency on astrophysical assumptions brings significant novelty, as it challenges existing models and invites further validation, potentially impacting future black hole astrophysics research.

Recent results on the identified charged-hadron (π±π^\pm, K±K^\pm, pp, pˉ\bar{p}) production at midrapidity region (|η|< 0.35) have been measured by the P...

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The article presents significant experimental findings regarding the production of charged hadrons in various collision systems, which is crucial for understanding the dynamics of nuclear matter. The analysis of scaling properties and nuclear modification factors provides valuable insights into the behavior of these particles under different collision conditions. The statistical data and comparative analysis across systems offer a robust methodology, contributing to the field of high-energy nuclear physics. The relevance is further enhanced by the implications for theories of particle production and the understanding of phase transitions in QCD.

We study the inference of network archaeology in growing random geometric graphs. We consider the root finding problem for a random nearest neighbor tree in dimension dNd \in \mathbb{N}, gener...

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The article addresses a novel problem in network archaeology using random geometric graphs, which has significant theoretical implications. Its focus on root finding in random nearest neighbor trees shows methodological rigor, with both upper and lower bounds established for confidence sets. This level of detail and the frameworks introduced for different root finding scenarios suggest a strong potential to influence future research in graph theory, computational geometry, and machine learning. Additionally, the practical applications in network analysis present further relevance.

We develop a 3D Eulerian model to study the transport and distribution of microplastics in the global ocean. Among other benefits that will be discussed in the paper, one unique feature of our model i...

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This article presents significant advancements in understanding microplastic distribution in oceans using a novel 3D Eulerian model. The integration of particle size and density in determining vertical terminal velocity is a noteworthy innovation that adds novel insights to existing research. The long-term model simulation enhances reliability, while correlation with satellite observations demonstrates practical applicability and validation. However, further clarification on the model&#39;s limitations and real-world implications would strengthen the findings&#39; impact.

We consider systems of interacting particles which are described by a second order Langevin equation, i.e., particles experiencing inertia. We introduce an associated equation of fluctuating hydrodyna...

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The article presents a robust mathematical framework analyzing the well-posedness of systems modeled by the Dean-Kawasaki equations, contributing to the understanding of complex interacting particle systems. The novelty lies in the focus on stochastic elements in the context of particle dynamics and active matter, which is a rapidly growing field. Its findings provide important implications for both mathematical theories and practical applications.

Stochastic diffusion equations are crucial for modeling a range of physical phenomena influenced by uncertainties. We introduce the generalized finite difference method for solving these equations. Th...

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The article presents a novel method that extends finite difference techniques to stochastic diffusion equations, which is both innovative and relevant to current computational challenges in physics and engineering. The examination of consistency, stability, and convergence adds methodological rigor, and the numerical validation across multiple dimensions enhances its applicability. This has significant implications for fields experiencing uncertainty in their models.

Identifying valuable measurements is one of the main challenges in computational inverse problems, often framed as the optimal experimental design (OED) problem. In this paper, we investigate nonlinea...

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This article introduces a novel approach to optimal experimental design (OED) by addressing nonlinearities and continuous measurement spaces, which significantly expands upon traditional finite approaches. The use of gradient flow and optimal transport techniques demonstrates methodological rigor and the potential to solve complex computational challenges in experimental setups. Its numerical validation on well-known systems indicates practical applicability. This work is likely to inspire future research in computational inverse problems, OED, and adaptive optimization.

This paper evaluates the suitability of Apache Arrow, Parquet, and ORC as formats for subsumption in an analytical DBMS. We systematically identify and explore the high-level features that are importa...

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The paper provides a systematic evaluation of widely used data formats in analytical DBMSs, highlighting both their strengths and weaknesses. The methodological rigor in evaluating the formats in the context of OLAP performance is commendable, and the identification of opportunities for format design improvements positions the work as seminal for both database research and practical applications. The focus on machine learning tasks adds a modern twist, suggesting significant interdisciplinary relevance.

Datalog is a popular logic programming language for deductive reasoning tasks in a wide array of applications, including business analytics, program analysis, and ontological reasoning. However, Datal...

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The article introduces DL^{\exists!}, a novel extension of Datalog that addresses significant limitations in existing frameworks for tree-structured data. Its innovative approach to represent facts via unique Skolem terms makes it a strong candidate for improving query efficiency in scenarios involving complex data structures. The robust performance demonstrated in benchmarks against leading systems highlights its practical applicability and potential impact in various domains.

The particle with first-order dynamics proposed by Dunne, Jackiw and Trugenberger (DJT) to justify the "Peierls substitution" is obtained by reduction from both of two-parameter centrally ex...

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The paper introduces a direct connection between Carroll dynamics and the Peierls substitution, enhancing the understanding of exotic particle motion in theoretical physics. The novelty lies in its interdisciplinary approach, bridging concepts from condensed matter physics and general relativity through the lens of anomalous Hall effects and non-commutativity. The methodological rigor appears strong, developing a coherent framework, though the implications of the results require further exploration in practical applications.

This article studies a non-Hermitian Su-Schrieffer-Heeger (SSH) model which has periodically staggered Hermitian and non-Hermitian dimers. The changes in topological phases of the considered chiral sy...

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This article presents a novel exploration of phase transitions within a non-Hermitian SSH model, an area that remains relatively underexplored. The findings introduce important insights into complex eigenspectra and the behavior of edge states, contributing significantly to the understanding of topological phases in non-Hermitian systems. The methodological rigor in studying phase transitions and the implications for future research in topological materials are noteworthy, marking a potential shift in how researchers approach non-Hermitian quantum systems.

The Hydrogen Lyman-alpha (Lya) line shows a large variety of shapes which is caused by factors at different scales, from the interstellar medium to the intergalactic medium. This work aims to provide ...

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This article presents a systematic classification of Lya emission line shapes, providing valuable insights into high-redshift galaxies. Its novel method and large sample size allow for robust findings regarding spectral properties, notably the double-peaked profiles and their potential to reflect IGM evolution. While the methodology appears rigorous, the recommendation for further observations adds a critical layer for future work, enhancing its relevance in ongoing research. Overall, its contributions to understanding galaxy dynamics at high redshifts make it impactful.

We prove that the minimal tensor product of a CC^*-algebra \cl A satisfying Kadison's similarity property and a nuclear CC^*-algebra \cl B, satisfies Kadison&...

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This article presents a significant contribution to the field of operator algebras and explores important properties related to the similarity problem in nuclear C*-algebras, which can be quite impactful for both theoretical advancements and practical applications in functional analysis. The novelty of addressing Kadison&#39;s similarity property in the context of tensor products exemplifies strong methodological rigor and could influence future research directions, particularly in the study of operator algebras.

Bounded minimizers of double phase problems at nearly linear growth have locally Hölder continuous gradient within the sharp maximal nonuniformity range q<1+α.

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The article addresses a specific mathematical problem in the calculus of variations, focusing on bounded minimizers in double phase problems. Its main contribution is the rigorous examination of the conditions under which these minimizers exhibit locally Hölder continuous gradients, which is a significant consideration in both theoretical and applied mathematics. However, the niche nature limits its broader applicability outside the specialized field of mathematical analysis.

Microscopic devices are widely used in optomechanical experiments at the cutting-edge of precision experimental physics. Such devices often need to have high electrical conductivity but low reflectivi...

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The article presents a novel technique for surface modification of micromechanical cantilevers that addresses a critical challenge in optomechanical experiments: balancing electrical conductivity with optical reflectivity. The potential impact is significant due to its applicability in precision physics experiments, and the methodology appears robust and transferable to similar devices. The ability to perform post-fabrication treatment without damaging existing structures adds to its attractiveness for researchers. Overall, the innovative approach and practical applications warrant a high relevance score.