FREESIA addresses multimodal posterior estimation under high-dimensional sparse observations by using covariance-aware posterior transport, improving inference accuracy for nonlinear or non-injective observation operators in dynamical systems.
See LICENSE filedata assimilationposterior transportcovariance-aware
Proposes an integrated CFD-ML framework for optimizing pod geometry in supersonic evacuated tube transport, leveraging Latin Hypercube Sampling and Bezier curve parameterization for aerodynamic design.
See LICENSE fileEvacuated Tube TransportPod OptimizationBezier Curve
This paper presents a privacy-preserving hybrid quantum-classical computing framework that integrates parameterized quantum circuits with classical components, targeting quantum computing proxy applications such as chemistry simulation.
See LICENSE fileQuantum Machine LearningHybrid Quantum-Classical ModelsPrivacy-Preserving
This paper presents an unconditionally stable second-order numerical method for fluid-poroelastic structure interaction, where free fluid governed by incompressible Stokes equations couples with poroelastic medium via the Biot system, reformulated using Robin-type interface conditions.
See LICENSE filefluid-structure interactionporoelasticityRobin boundary conditions
A deep-learning surrogate model based on residual CNN predicts Earth-induced transition probabilities for solar neutrinos across energy and zenith angle parameter space.
See LICENSE fileneutrino oscillationEarth matter effectdeep learning surrogate
Proposes finite-state automata encoding recursive lattice geometry for exact MPO construction of tight-binding Hamiltonians across fractals, quasicrystals, and hyperbolic lattices.
See LICENSE filetight-binding modelmatrix product operatorfinite-state automaton
A probabilistic physics-informed framework using WaveNet and ParamNet to solve the inverse problem of recovering Woods-Saxon nuclear potential parameters from sparse spectral data.
See LICENSE fileNuclear PhysicsPhysics-Informed Neural NetworksParameter Identification
A modal integrator framework (MIISO) is proposed to stabilize non-physical outlier modes at the top of the discrete spectrum in high-order isogeometric discretizations, improving numerical solutions in wave propagation and structural dynamics.
See LICENSE fileisogeometric analysisstructural dynamicswave propagation
DNNsolver proposes a deep learning approach for accurate and efficient modeling of polarization-sensitive diffractive neural networks, addressing limitations of thin element approximation in capturing intra-layer electromagnetic coupling.
See LICENSE fileDiffractive Neural NetworksDeep Learning ModelingPolarization-Sensitive Optics
Investigates the relationship between residual scale and learnability in Δ-learning, demonstrating through molecular graph neural network evaluation on total energy targets that smaller residual targets do not necessarily yield better learning outcomes.
See LICENSE fileDelta learningresidual learningmolecular graph neural network
DissipNet enforces dissipativity constraints to model dissipative dynamical systems, balancing prediction accuracy with physical property preservation for control theory and complex dynamics analysis.
See LICENSE filedissipative systemsrecurrent neural networkdynamical systems
JAMB proposes jointly denoising bimanual actions and motion states, explicitly modeling geometric interactions between arms in shared 3D scenes to enable coordinated manipulation.
See LICENSE filebimanual manipulationdiffusion policyaction generation
KATOsuper presents an objective-agnostic framework that couples neural-reparameterized topology optimization with sensitivity-consistent Fourier neural operators, addressing gradient inconsistency between predicted objectives and sensitivities for stable structural optimization.
See LICENSE fileTopology OptimizationFourier Neural OperatorSensitivity Analysis
A high-performance PDE neural solver based on Manifold Function Encoder, featuring resolution-independent memory footprint and arbitrary PDE input support for large-scale physical simulations.
See LICENSE fileNeural OperatorPDE SolverMemory Efficiency
Proposes a geometric constellation shaping (GCS) framework to enhance sensing privacy in OFDM-ISAC systems, addressing the privacy risk where passive eavesdroppers exploit ISAC data signals for unauthorized target sensing, revealing receiver-specific ranging performance dependent on constellation design.
PISCES is a convolutional autoencoder trained without catalog labels on OMNI solar wind measurements under physics constraints, designed for detecting solar wind transients and providing space weather early warning at the Sun-Earth L1 point.
See LICENSE fileSpace weatherSolar windAnomaly detection