QuaRK: A Quantum Reservoir Kernel for Time Series Learning
QuaRK framework combines quantum reservoir computing with classical readout for time series learning with theoretical guarantees.
QuaRK framework combines quantum reservoir computing with classical readout for time series learning with theoretical guarantees.
Fast algorithm for multiplication-free dimension reduction via element selection as alternative to PCA for reducing model parameters and accelerating inference.
Research on out-of-support generalization reformulates extrapolation beyond training data distribution as sequence modeling in weight space to prevent catastrophic failure.
Optimal multiway-split decision trees for interpretable clustering that balance accuracy and explainability while reducing computational costs.
Investigates benchmark data leakage in LLM-based recommender systems where models memorize training data, inflating evaluation metrics.
Graph embedding method using distributional kernels for community detection without optimization, addressing over-smoothing in GNNs.
Detects unusual evolving trends in time series using concept of time series chains capturing ordered temporal pattern changes.
Fairness approach for federated learning addressing cumulative utility parity under intermittent and heterogeneous client participation.
Zero-order optimization method for LLM fine-tuning via learnable direction sampling, reducing memory requirements without backpropagation.
Optimized certainty equivalent risk-controlling prediction sets for safety-critical applications with tail behavior and worst-case guarantees.
Vision-language model calibration approach for class-incremental learning that addresses representation rigidity and accumulated errors in analytic CIL.
Uses attention head entropy to predict answer correctness in LLMs, enabling detection of hallucinations without external evaluators.
First optimal regret bound for policy optimization in contextual multi-armed bandits with general offline function approximation.
OPO-CMDP presents first policy optimization algorithm for contextual MDPs with general offline function approximation achieving near-optimal regret bounds.
HBVLA applies 1-bit post-training quantization to vision-language-action models for efficient deployment on resource-constrained robots and edge devices.
Bi-level optimization framework using neural networks for operational optimization of thermal power systems with hierarchical variables.
Study of instruction-tuning data selection for LLMs using semantic representation similarity to identify redundancy in large-scale datasets.
MEMTS introduces parameterized memory for domain adaptation of time series foundation models to handle temporal distribution shifts and domain-specific patterns.
MechPert predicts transcriptional responses to unseen genetic perturbations using mechanistic consensus as inductive bias, combining knowledge graphs with LLM reasoning.
Cast-R1 applies tool-augmented sequential decision policies and iterative reasoning to time series forecasting, enabling autonomous evidence acquisition and prediction revision.
AnomaMind uses agentic reasoning with tool augmentation for time series anomaly detection, framing it as evidence-driven diagnosis rather than fixed discriminative prediction.
Variational flow-matching framework for simulation-based inference respecting structured domains with discrete-continuous variables.
Graph neural network benchmark for repository-level bug localization using code graph structure beyond standard LLM context windows.
Analysis comparing code generation learnability to reinforcement learning, proposing hierarchy of feedback quality as ML progress ceiling.
Multi-agent AutoML framework using LLM-based code generation with modular architecture to reduce hallucinations and improve verifiability.
End-to-end learnable tokenization for LLMs using reinforcement learning instead of hardcoded compression steps.
Training paradigm embedding experience replay in reinforcement learning for LMs to learn from sparse, delayed environmental feedback.
Quantized reinforcement learning for LLM training that accelerates rollout efficiency by 30% using quantized actor networks.
State-space models (Mamba) applied to natural product chemistry for molecular property prediction and generation.
Foundation model for time series that uses latent-space predictive learning instead of direct future value prediction.
Position encoding technique using random float sampling to improve transformer length generalization beyond pretraining sequence lengths.
Parameter-efficient fine-tuning for vision models using policy gradient with adaptive entropy annealing to prevent catastrophic forgetting in class-incremental learning.
Sanity checks validating whether sparse autoencoders recover meaningful features beyond random baselines for neural network interpretability.
ROAST uses on-distribution rollouts for parameter-efficient LLM activation steering at inference time, replacing off-distribution supervision with continuous soft scaling.
Plug-and-play regularization losses for Mixture-of-Experts models promoting expert specialization across intra- and cross-layers without structural modifications.
Comprehensive analysis of malicious prompt classifier robustness under distribution shift with 18 datasets spanning jailbreaks and prompt injections for LLM agents.
Pivot-driven resampling technique for deep dense exploration in LLM RL, discovering high-quality trajectories within limited sampling budget from language space.
TS-Haystack benchmark evaluates time series language models on long-context retrieval with millions of datapoints, requiring precise temporal localization.
Characterizes optimal batch size scheduling for large-scale deep learning under fixed data budget using functional scaling law framework.
MAGE optimizes KV cache memory access in block diffusion LLMs for long-context settings using dynamic sparse attention adapted to block diffusion uniqueness.
RMB-CLE framework for multi-task learning integrating error-based task clustering with local ensembling to mitigate negative transfer from unrelated tasks.
Analysis identifying five recurring biases in financial LLM applications: look-ahead, survivorship, narrative, objective, and cost bias that invalidate deployment claims.
MAD framework treats tabular anomaly detection as multi-agent debate, leveraging disagreement from heterogeneous model families under distribution shift and rare-anomaly regimes.
Transfer learning approach using LSTM for cross-household hot water demand forecasting to optimize heat pump operation and reduce energy waste.
Radial-VCReg augments VCReg with radial Gaussianization loss for improved self-supervised representation learning by aligning feature norms with Chi distribution.
Framework leveraging transformer-based language models for causal inference from unstructured text, comparing estimates against structured data baselines.
Testing methodology for AI/ML and quantum systems addressing high-dimensional inputs, probabilistic outputs, and evaluation of trustworthiness, fairness, and robustness.
Framework for adaptive multi-turn LLM interactions to efficiently elicit group-level information from surveys, optimizing respondent selection and questioning strategy.
KernelBlaster uses agentic workflows with in-context RL to optimize CUDA code across GPU architectures, aggregating knowledge from prior optimizations without expensive finetuning.
MLAT framework exposes pre-trained ML models as callable tools within LLM agent workflows, enabling agents to invoke quantitative predictions and reason about outputs contextually.