Deep-dive technical documentation on the architecture, algorithms, and validated performance of the Physics-Constrained Digital Twin platform.
Neuro-Symbolic architecture overview. H-BDVAE perception engine, dual-path system, and physics-constrained simulation.
Why genomics alone cannot predict resistance. Non-Mutational Resistance and the failure of standard AI.
Split-Source Transfer Learning for predictive oncology. From organoids to patients via domain separation.
Physics-Constrained Sim-to-Real Transfer Learning in Computational Oncology.
Preventing metabolic scaling-induced representational collapse in cross-species oncology models.
Uncertainty-calibrated missing modality handling, separated-state dynamics, and multi-layer UQ.
Preventing training collapse in domain adaptation via ontology-guided autogradient modulation.
Control of adjoint sensitivity computation graphs and physics-constrained gradient topologies.
DRO training of physics-constrained cancer digital twins using dual-mode risk set construction.
Stabilized stochastic inference and risk-averse optimization in physics-constrained oncology digital twins.
Cryptographically enforced runtime resource gating in ODE solvers via memory allocation interlock.
A presentation and AI-generated podcast walking through the patents and the physics behind the platform.
15-slide visual walkthrough of the sim-to-real architecture, separated-state ODEs, and patent portfolio.
AI-generated podcast discussion covering the patent innovations, cross-species transfer learning, and clinical implications.
Validated on TCGA Pan-Cancer (33 cancer types) + PDX Models
Schedule a demo to see how physics-constrained simulation can transform your oncology workflows.