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arXiv research

A locally-built, LLM-digested index of recent arXiv papers in quant finance, geometry/topology, and statistical ML — keyword search served straight from SQLite on this machine.

169,341 papers · 148 categories

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195391586781 · Jun 202019922001200920182026
48 results for Monte Carlo Study

This study compares MC and QMC methods for derivative pricing, showing QMC's superior convergence rates.

problem Improving derivative pricing accuracy and efficiency in high-dimensional settings.
method Compared Monte Carlo and quasi-Monte Carlo techniques, focusing on convergence rates and low-discrepancy sequences.
result Quasi-Monte Carlo methods achieve superior convergence rates and reduce root mean square error in derivative pricing.

Study compares MC and QMC methods for pricing and risk analysis in a hyperbolic local volatility model.

problem Derivative pricing and risk analysis in a hyperbolic local volatility model.
method Application of Monte Carlo and Quasi Monte Carlo methods for pricing and risk analysis.
result Quasi Monte Carlo methods show superior performance in high-dimensional integration for derivative pricing and risk analysis.

Paper analyzes and accelerates Langevin Monte Carlo methods using large deviations theory.

problem High-dimensional sampling problems in machine learning.
method Unified approach using large deviations theory to study and accelerate Langevin dynamics variants.
result Efficiency of Langevin dynamics variants demonstrated through numerical experiments.

New Hamiltonian Monte Carlo method for non-canonical dynamics.

problem Incompatibility of canonical symplectic structure with non-canonical dynamics.
method Developed a framework for Hamiltonian Monte Carlo using non-canonical symplectic structures with implicit integration.
result Non-canonical Hamiltonian Monte Carlo provides sampling advantages.

A new method combines AIS and SMCI for efficient evaluation of Ising models.

problem Efficiently evaluating expectations on Ising models under various temperatures.
method Combining Annealed Importance Sampling (AIS) and Spatial Monte Carlo Integration (SMCI).
result The proposed method performs efficiently in both high- and low-temperature regions.

The paper proposes a new method to approximate Wasserstein-Fisher-Rao flows using Monte Carlo techniques.

problem Sampling from probability distributions and minimizing Kullback-Leibler divergence.
method Sequential Monte Carlo approximations of Wasserstein-Fisher-Rao gradient flows.
result The proposed method outperforms other Monte Carlo algorithms in certain conditions.

SLMC improves sampling efficiency for high-dimensional distributions.

problem Sampling from high-dimensional distributions is computationally challenging.
method SLMC projects Langevin updates onto subsampled eigenblocks of a time-varying preconditioner.
result SLMC offers superior adaptability and computational efficiency compared to traditional methods.

This paper improves portfolio market risk simulations using randomized quasi-Monte Carlo methods.

problem Simulating loss probabilities and conditional excesses for linear asset portfolios.
method Combines randomized quasi-Monte Carlo with importance sampling and stratified importance sampling.
result Quasi-Monte Carlo methods increase robustness of portfolio risk estimates.

Recommender systems improve quantum Monte Carlo simulations.

problem Efficiency of quantum Monte Carlo methods without sacrificing accuracy.
method Quantum to classical mapping and molecular simulation techniques.
result Classical molecular gas model reproduces quantum distributions efficiently.

KMC uses gradient-free Hamiltonian Monte Carlo with efficient approximations for sampling.

problem Sampling from complex, intractable target densities.
method Adaptive MCMC based on Hamiltonian Monte Carlo with efficient kernel approximations.
result Substantial mixing improvements over gradient-free samplers.

Improved Hamiltonian Monte Carlo for Bayesian inference reduces variance and improves performance.

problem Efficiently sampling from posterior distributions in Bayesian inference with stochastic gradients.
method Variance reduction techniques applied to Hamiltonian Monte Carlo.
result Theoretical and experimental improvements in convergence and performance compared to variance-reduced Langevin dynamics.

SBMC method improves uncertainty estimation in deep learning models.

problem Improving uncertainty quantification in deep learning models.
method A scalable Bayesian Monte Carlo method using a model and parallel SMC/MCMC algorithm.
result SBMC achieves comparable or better accuracy and improved uncertainty quantification compared to state-of-the-art methods.

This review aims to bridge the gap between MCMC users and geometric foundations.

problem Insufficient understanding of geometric tools in Hamiltonian Monte Carlo.
method Geometric tools and Hamiltonian dynamics for efficient probability density exploration.
result Comprehensive introduction to geometric tools accessible to non-experts.

Study improves sampling from complex distributions using annealed Langevin Monte Carlo.

problem Sampling from non-log-concave and multimodal distributions.
method Annealed Langevin Monte Carlo algorithm with theoretical guarantees.
result Oracle complexity of O(dβ²A²/ε⁶) for achieving ε² accuracy in Kullback-Leibler divergence.

The paper explores how control variates can reduce variance in Monte Carlo simulations, especially for Sobolev functions.

problem Efficiency of control variates in reducing variance for Monte Carlo simulations.
method Study of a specific quadrature rule using nonparametric regression-adjusted control variates.
result A specific quadrature rule can improve the Monte Carlo rate and achieve the minimax optimal rate under sufficient smoothness assumptions.

New methods improve efficiency of sampling algorithms for complex systems.

problem Efficiently sampling from complex, high-dimensional probability distributions.
method Randomized Runge-Kutta-Nyström methods tailored for Hamiltonian flows.
result Quantitative 5/25/2-order L2L^2-accuracy in approximating Hamiltonian flows.

This paper improves MCVI by using Quasi-Monte Carlo sampling to reduce gradient variance.

problem Reducing variance in Monte Carlo gradient estimators for faster convergence.
method Introducing Quasi-Monte Carlo (QMC) sampling to reduce variance in score function and reparameterization gradient estimators.
result The proposed QMC approach leads to faster convergence compared to standard Monte Carlo methods.

New method combines neural networks with Monte Carlo for complex system reliability.

problem Estimating small failure probabilities in complex systems.
method Subset Simulation with Hamiltonian Neural Networks.
result High acceptance rates and computational efficiency in low-probability regions.

In this paper we propose a flexible and efficient framework for handling multi-armed bandits, combining sequential Monte Carlo algorithms with hierarchical Bayesian modeling techniques. The framework naturally encompasses restless bandits, contextual bandits, and other bandit variants under a single inferential model. …

2013-10-04abs ↗pdf ↗

New method reduces uncertainty in AI-driven Monte Carlo simulations.

problem Epistemic uncertainty in AI surrogate models affects Monte Carlo sampling outcomes.
method Penalty Ensemble Method (PEM) modifies Metropolis acceptance rule to increase rejection probability in uncertain regions.
result PEM enhances reliability of Monte Carlo simulations by reducing uncertainty propagation.

ParaMonte::Python streamlines Bayesian data analysis with fast Monte Carlo and MCMC routines.

problem Efficiently sampling posterior distributions in Bayesian modeling and data science.
method Serial and MPI-parallelized Markov Chain Monte Carlo (MCMC) routines.
result Automated model calibration and uncertainty quantification in Bayesian analysis.

In this paper, we discuss the application of quasi-Monte Carlo methods to the Heston model. We base our algorithms on the Broadie-Kaya algorithm, an exact simulation scheme for the Heston model. As the joint transition densities are not available in closed-form, the Linear Transformation method due to Imai and Tan, a p…

2012-02-15abs ↗pdf ↗

This paper extends AD techniques to Monte Carlo processes for efficient derivative calculation.

problem Obtaining derivatives of expectation values in Monte Carlo processes.
method Two approaches: reweighting and Hamiltonian extension of HMC.
result Hamiltonian approach as a change of variables simplifies variance reduction.

New method combines Monte Carlo and tensor networks for solving complex equations.

problem Solving high-dimensional partial differential equations efficiently.
method Uses Monte Carlo simulations and tensor train sketching for updates and re-estimations.
result Demonstrates versatility and efficacy in solving specific equations.