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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.

168,657 papers · 148 categories

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77155232309 · Jun 202019922001200920172026
48 results for D-optimal design

Experimental design is a classical statistics problem and its aim is to estimate an unknown mm-dimensional vector ββ from linear measurements where a Gaussian noise is introduced in each measurement. For the combinatorial experimental design problem, the goal is to pick kk out of the given nn experiments so as to m…

2018-02-23abs ↗pdf ↗

A2D2E designs optimal evaluations for estimating main effects in black-box models.

problem Sensitivity to OOD evaluations and instability under feature correlation in estimating black-box model effects.
method A2D2E uses D-optimal hypercube designs to minimize main effect estimation variance.
result A2D2E outperforms existing methods, especially under high feature correlation.

New algorithm learns human preferences from few comparisons efficiently.

problem Learning human preferences from limited comparison feedback.
method Formulated as D-optimal design for Plackett-Luce model, solved using randomized Frank-Wolfe algorithm.
result Proposed algorithm efficiently solves D-optimal design problem for Plackett-Luce objective.

Active learning framework for optimizing human preferences in reinforcement learning.

problem Selecting most informative feedback for training models of human preferences.
method Proposes an active learning framework to collect preferential feedback online or offline.
result Errors in DPO logit estimates diminish with more feedback.

Optimal sampling reduces power grid data analysis costs.

problem Efficient online analysis of high-speed, correlated IoT data.
method D-optimality criterion-based sampling methods combining Bernoulli and leverage score sampling.
result Leverage score sampling improves computational efficiency and outperforms benchmarks.

Enhanced PC2^2 improves surrogate modeling for high-dimensional problems.

problem Degrading performance and efficiency of PC2^2 in high-dimensional parameter spaces.
method Integrates SULM solver and D-optimal sampling strategy into PC2^2 framework.
result Enhanced PC2^2 demonstrates better comprehensive capability and efficiency.

ALMAB-DC optimizes expensive black-box experiments using active learning and distributed computing.

problem Efficiently optimizing expensive, gradient-free objectives in computational statistics and machine learning.
method Combines active learning, multi-armed bandits, and distributed asynchronous computing.
result Achieves lower simple regret and superior performance in various tasks compared to non-ALMAB baselines.

In this paper, we consider an online optimization process, where the objective functions are not convex (nor concave) but instead belong to a broad class of continuous submodular functions. We first propose a variant of the Frank-Wolfe algorithm that has access to the full gradient of the objective functions. We show t…

2018-02-16abs ↗pdf ↗

New active learning methods for Gaussian process improve predictive modeling of composite fuselage.

problem Improving predictive modeling of composite fuselage with limited training samples and uncertainties.
method Proposed two new active learning algorithms for Gaussian process considering uncertainties.
result The proposed approach realizes better prediction performance for automatic shape control of composite fuselage.

Online active learning improves model performance in high-volume production processes.

problem Outliers degrade the predictive performance of online active learning models.
method Proposes a robust estimator and bounds the search area of a conditional D-optimal algorithm.
result The proposed method improves the performance of online active learning in the presence of outliers.

Dual active learning improves RLHF by selecting optimal conversations and teachers.

problem Efficiently aligning LLMs with human preferences using RLHF from feedback.
method Offline RL for conversation and teacher selection, dual active reward learning, pessimistic RL.
result The proposed algorithm achieves minimal generalized variance and outperforms state-of-the-arts.

The paper introduces a framework to select efficient datasets for preserving model rankings.

problem Efficient evaluation of machine learning models on small, representative datasets.
method Bootstrap aggregation, clustering, design criteria, random baselines, and greedy farthest-first (FAFI).
result Several selection strategies improve rank preservation compared to random subsets, especially in time series classification.

Study optimizes sensor placement for accurate parameter estimation in complex systems.

problem Challenges in parameter estimation with limited or noisy data.
method Physics-Informed Neural Networks (PINNs) for optimal sensor placement and parameter estimation.
result PINNs-based framework achieves higher accuracy in parameter estimation compared to random sensor placements.

A framework for faster, better infographic design by non-experts and experts alike.

problem Designing infographics is time-consuming and tedious for non-experts and even professionals.
method Semi-automated infographic framework for structured and flow-based designs, including automatic design ranking and customization options.
result Designers from all expertise levels can generate generic infographic designs faster than existing methods while maintaining quality.

The paper proposes a method to reliably select design algorithms for machine learning-guided design tasks.

problem Choosing the right design algorithm for machine learning-guided design tasks.
method Combining designs' predicted property values with held-out labeled data to reliably forecast characteristics of the label distributions produced by different design algorithms.
result The method is guaranteed to return design algorithms that yield successful label distributions.

We propose a new low-cost machine-learning-based methodology which assists designers in reducing the gap between the problem and the solution in the design process. Our work applies reinforcement learning (RL) to find the optimal task-oriented design solution through the construction of the design action for each task.…

2019-03-13abs ↗pdf ↗

MO-PaDGAN generates diverse, high-performance designs with multiple metrics.

problem Challenges in generating diverse, high-performance designs with multiple metrics.
method MO-PaDGAN uses a new Determinantal Point Processes based loss function for probabilistic modeling of diversity and performances.
result MO-PaDGAN expands the design space towards high-performance regions and generates new designs with high diversity and performances.

MCD automates counterfactual design searches for multi-modal tasks.

problem Designing for multi-objective goals and complex constraints.
method Model-agnostic counterfactual search method for multi-modal design modifications.
result MCD streamlines and automates counterfactual search, recommending effective design modifications.

ANN with GA optimizes flexible disc design for lower mass and stress.

problem Design flexible disc elements for lower mass and stress without compromising torque transmission and misalignment.
method Artificial Neural Network (ANN) coupled with Genetic Algorithm (GA) for design exploration.
result Optimized designs meet specified criteria with minimum mass and stress.

New method for mixed-variable GSA improves material design efficiency.

problem Designing materials with both quantitative and qualitative variables.
method Integrates LVGP with Sobol' analysis for mixed-variable GSA.
result Accelerates exploration of novel MOF candidates in combinatorial design spaces.

Efficient deep learning computing requires algorithm and hardware co-design to enable specialization: we usually need to change the algorithm to reduce memory footprint and improve energy efficiency. However, the extra degree of freedom from the algorithm makes the design space much larger: it's not only about designin…

2019-04-24abs ↗pdf ↗

DAD learns to design experiments quickly, outperforming traditional methods.

problem Real-time decision-making in sequential Bayesian experimental design.
method Amortized design network trained with contrastive information bounds.
result DAD outperforms alternative strategies on various problems.

Enhances scenario approach for certifying design properties post-design.

problem Certifying additional useful properties in designs not considered during the design phase.
method Two-level framework of appropriateness: baseline and post-design. Distribution-free upper bounds on risk derived.
result Distribution-free upper bounds on the risk of failing to meet post-design appropriateness.

MO-PaDGAN improves multi-objective optimization by generating diverse and high-performing designs.

problem Challenges in parameterizing engineering designs for multi-objective optimization.
method MO-PaDGAN uses a generative adversarial network with a Determinantal Point Processes loss function to address these challenges.
result MO-PaDGAN generates designs with improved performance and coverage, even surpassing training data.

Generative thermal design learns optimal shapes using multi-agent reinforcement learning.

problem Complex thermal design challenges due to convection-diffusion equation and boundary interactions.
method Cooperative multi-agent deep reinforcement learning with continuous geometric representation.
result Framework learns optimal design strategies without shape derivation or differentiable objectives.

Adaptive designs achieve strong Neyman regret guarantees for ATE estimation.

problem Estimating unbiased average treatment effect in sequential experiments.
method Proposed adaptive designs with O~(logT)\widetilde{O}(\log T) Neyman regret under boundedness assumptions and O~(T)\widetilde{O}(\sqrt{T}) multigroup Neyman regret in covariate-based settings.
result Adaptive designs outperform non-adaptive designs in terms of Neyman regret, especially in covariate-based settings.

iDAD uses neural networks to quickly adapt experiments without likelihoods.

problem Performing adaptive experiments in real-time with implicit models.
method iDAD learns a design policy network upfront to make quick design decisions.
result iDAD can make design decisions in milliseconds, unlike traditional BOED approaches.

Unified framework for combinatorial and rounding algorithms in experimental design.

problem Designing and analyzing combinatorial and rounding algorithms for experimental design problems.
method Local search framework for combinatorial algorithms and regret minimization framework for rounding algorithms.
result Unified approach to match and improve all known results in D/A/E-design and obtain new results in unknown settings.

A new method achieves optimal uniformity in designs with minimal flexibility.

problem Achieving optimal uniformity in designs with minimal flexibility.
method Derive a lower bound on the uniformity constant and use a greedy construction to achieve this bound, then extend the scheme for more flexibility.
result A simple greedy construction achieves the optimal uniformity constant.

RID-Noise improves robust design under noisy conditions using neural networks.

problem Design robustness under noisy environments.
method Robust Inverse Design under Noise (RID-Noise) using conditional invertible neural networks (cINNs).
result RID-Noise achieves more effective robust design compared to state-of-the-art methods.

Dataset of 4500 bicycle designs aids in design analysis and synthesis.

problem Identify gaps in bicycle market and design space, classify bicycles, synthesize new designs.
method Processed dataset, unsupervised dimensionality reduction, supervised classification, machine learning synthesis.
result Identified design parameters and factors influencing bicycle classification.