Using physics-informed neural networks to solve electron spin dynamics in few-cycle laser pulses, deriving analytical expressions for the polarization angle of electrons initially at rest in CEP-stabilized linearly polarized plane-wave pulses.
See LICENSE filePINNspin dynamicslaser-driven electron sources
PosteriorBench introduces a benchmark for evaluating how well generative inverse solvers capture true posterior distributions in scientific inverse problems, addressing limitations of pointwise accuracy metrics.
See LICENSE fileinverse problemsgenerative modelsuncertainty quantification
Proposes a physics-informed inverse modeling framework to infer governing parameters of the Moose-Wolf ecosystem in Isle Royale National Park from limited and noisy observational data, providing a data-driven approach for ecological dynamics modeling.
See LICENSE fileEcological dynamicsInverse problemPhysics-informed
This paper proposes PIRNN to enhance interpretability and accuracy of time series forecasting for physical processes by incorporating physical knowledge from historical data during training.
See LICENSE filePhysics-Informed Neural NetworksTime Series ForecastingRecurrent Neural Networks
Proposes a ladder of information limits to quantify predictability boundaries for reduced-order models under limited information, covering memoryless and memory-augmented trajectory forecasts, event prediction, stationary statistics, and generative laws.
See LICENSE filereduced-order modelinformation theoryprediction theory
Presents physics-informed hemodynamic modeling for coronary intervention, enabling data-free prediction and sparse-data assimilation to overcome limitations of traditional numerical analysis and purely data-driven approaches.
See LICENSE fileHemodynamicsCoronary InterventionPhysics-Informed Neural Networks
Proposes a 3D FDTD framework using Quantized Tensor Trains that reduces memory and computational costs from conventional volumetric scaling to logarithmic scaling, enabling high-resolution electromagnetic scattering simulations with limited resources.
See LICENSE fileTensor DecompositionFDTDElectromagnetic Scattering
A 36M-parameter UNet-based PDE solver v2 by Los Alamos National Laboratory, designed for surrogate modeling of partial differential equations in scientific computing.
Proposes a nearly-instant latent space Bayesian optimization method that replaces expensive sequential decision-making with sampling overhead, making BO practical for generative model-driven de novo design pipelines with cheap virtual screens.
See LICENSE fileBayesian OptimizationLatent Space OptimizationGenerative Design
A physics-informed dual-state query learning framework for GPCR ligand bioactivity prediction, addressing the neglect of dynamic conformational equilibria in existing deep learning approaches to improve functional efficacy discrimination.
See LICENSE fileGPCR ligandbioactivity predictionphysics-informed learning
Proposes a variational latent Markov operator framework that encodes physical states as latent distributions and evolves them through probabilistic transitions, addressing error accumulation and distribution shift in neural PDE solvers for long-horizon prediction.
See LICENSE fileNeural PDE SolverVariational MethodMarkov Dynamics
This paper develops a structure-informed data-driven ROM for transport-dominated systems governed by scalar hyperbolic conservation laws, using the kinetic defect formulation to separate characteristic transport from entropy defects localized on shock manifolds.
See LICENSE filereduced-order modelinghyperbolic conservation lawsshock capturing
Proposes two ML-based calibration methods to correct electromagnetic shower feature discrepancies between Monte Carlo simulations and real collision data in the CMS calorimeter.
See LICENSE fileHigh-Energy PhysicsElectromagnetic ShowerDetector Calibration
Proposes a three-step framework for ensemble smoother with multiple data assimilation (ES-MDA), unifying existing adaptive variants to balance accuracy and computational cost in reservoir engineering inverse problems.
See LICENSE fileData AssimilationEnsemble MethodsInverse Problems
Proposes Neural Modal Decomposition (NMD) to decompose multi-port system response matrices into pole-residue form for neural network-based modeling of RF cavities and photonic devices.
See LICENSE fileNeural Modal DecompositionElectromagnetic ModelingMulti-port System
VIOT is a generative neural operator for incompressible density transport that predicts divergence-free velocity fields via feed-forward inference, replacing hour-scale optimization in adjoint fluid solvers and enabling rapid transport trajectory generation.
See LICENSE fileIncompressible FlowNeural OperatorOptimal Transport
This study assesses RF-EMF exposure across all floors of a 20-story building adjacent to a multi-operator shared base station, revealing peak levels of 31.86 V/m near the center of the antenna's vertical coverage zone.
See LICENSE fileEMF measurementbase station exposureRF-EMF assessment
A spectral co-design framework that directly couples fabrication-constrained SPSA-Adam optimizer with full-wave finite-element eigenmode simulations for multifrequency Rydberg electrometry, operating without analytical or adjoint gradients.
See LICENSE filequantum hardwarespectral co-designRydberg electrometry
Presents a 3D multiphysics FEM framework for high-frequency induction tube welding, coupling time-harmonic magnetic scalar potential with quasi-stationary heat transport for coupled electromagnetic-thermal simulation.
See LICENSE fileinduction tube weldingmultiphysics simulationfinite element method
Proposes a hybrid CNN-Transformer architecture for solar flare prediction based on the physical process of magnetic energy release in the solar atmosphere, enabling early warning for C/M/X-class flares.
See LICENSE filesolar flaresolar magnetic fieldspace weather