A comparative study benchmarking autoencoders against parsimonious diffusion maps (PDMs) grounded in classical numerical analysis for reduced-order modeling of Navier-Stokes turbulent flows.
See LICENSE fileNavier-StokesReduced-Order ModelingAutoencoder
Proposes the Fractional Fourier Neural Operator (FrFNO) that embeds the analytic Mittag-Leffler propagator to address the computational challenge of memory-dependent time derivatives and nonlocal fractional Laplacians in fractional PDEs, enabling efficient surrogate modeling.
See LICENSE fileFractional PDENeural OperatorMittag-Leffler Function
Proposes a triply-scalable equivariant Gaussian process method that encodes symmetries while maintaining probabilistic predictions and uncertainty quantification for large-scale scientific computing.
See LICENSE fileGaussian ProcessEquivariant Neural NetworksUncertainty Quantification
Presents the first complete machine learning method for accelerating plane-wave DFT in materials under the PAW formalism, formalizing seven criteria that a Complete Neural Electronic Initializer must satisfy and addressing two missing structure-dependent components: augmentation occupancies and spin initialization.
See LICENSE fileDensity Functional TheoryMachine LearningMaterials Science
A joint training approach that addresses neural operator out-of-distribution degradation and PINN multi-solution convergence errors by leveraging imperfect neural operators to guide PINN optimization.
Proposes a kernel estimator for nonparametric tangent vector field regression on Riemannian manifolds without boundary, using parallel transport and volume correction, with theoretical derivation of uniform second-order bias and stochastic convergence rates.
See LICENSE fileRiemannian geometrytangent vector fieldnonparametric estimation
Introduces backward logarithmic orthogonal functions constructed via terminal-endpoint logarithmic mapping of generalized Laguerre polynomials, designed for backward spectral approximation of problems with weak endpoint singularities.
See LICENSE filespectral methodsorthogonal functionsapproximation theory
Proposes Transformer-based learning of structured representations for symbolic ODE expressions, preserving commutative properties to enable mathematical reasoning in symbolic form, distinct from traditional methods relying on numerical fitting.
See LICENSE fileSymbolic ComputationODETransformer
This paper addresses kinematics estimation and closed-loop control for tensegrity-based continuum robots by parameterizing complex continuous bending configurations using strut inclination angles, overcoming limitations of elastic backbone models.
See LICENSE fileTensegrityContinuum RobotKinematics Estimation
NeuIDO proposes a neural intrinsic dynamics operator that internalizes physical constraints into world models for predicting 3D object interaction trajectories, bridging the gap between physics-informed 4D generation and true world models.
See LICENSE fileWorld ModelPhysics-Informed GenerationNeural Operator
Proposes a continuous delayed-memory stochastic gradient descent method combined with neural network-parameterized stochastic differential equations to model quasar brightness variations from astronomical survey time series.
See LICENSE filequasartime seriesstochastic differential equations
Proposes iCRNNs to discover chemical reaction network structures and kinetics from time-series concentration data without prior mechanistic assumptions, balancing interpretability and computational efficiency.
See LICENSE fileChemical Reaction NetworksNeural NetworksChemical Kinetics
Proposes a novel framework using set-based value function characterization and neural network approximation to estimate stabilization domains and stabilizing controllers for input-constrained discrete-time nonlinear systems.
See LICENSE fileNonlinear SystemStabilization DomainNeural Network
This paper proposes a periodic activation function architecture using complex exponential to generate paired sine and cosine outputs, demonstrating improved performance over sine-activated MLPs for reconstructing convective flows in physics-informed neural networks.
See LICENSE filePINNsperiodic activationconvective flow
GravINNs embeds post-Newtonian equations of motion directly into neural network training to learn binary orbital dynamics, including single-orbit surrogates and extensions across a four-dimensional parameter space.
See LICENSE filegravity-informed neural networkspost-Newtonian approximationbinary dynamics
Proposes a PINN-based approach for the weakly coupled two-compartment neuron model to infer unmeasurable somatic membrane potential dynamics from dendritic recordings.
See LICENSE fileneural dynamicsPINNtwo-compartment model
Develops a droop-aware extension of GridFM foundation model for power systems, embedding droop gains and deadband parameters as node features for control-aware AC power flow analysis.
See LICENSE filePower SystemsPower FlowFoundation Model