AAIC 2026 · London · July 12–15

Self-improving AI for Alzheimer's research.
Sixteen posters. Five pillars.
One verified learning loop.

A collective synthesis of AI systems that improve themselves — gated at every step by biological, statistical, and clinical checks. AAIC 2026, London — the verification layer that sits beside the biology, not above it.

DIGITAL TWINS CELL-STATE CO-SCIENTISTS DIAGNOSTICS CHEMISTRY 1 2 3 4 5 Recursive loop GENERATE · SIMULATE · VERIFY UPDATE · PRESERVE
Before anything else

Who we are — and who we are not.

Because AAIC is a room full of MDs and biologists, we say the hardest thing first. If our claims cannot survive this sentence, none of the rest matters.

Where we stand

  • We are AI-methods researchers. Not clinicians. Not biologists.
  • The biology stays with the biologists. We build verification infrastructure — the audit layer around AI systems used in Alzheimer's research — that sits alongside their work, never above it.
  • Five of our prior AI-methods papers touch Alzheimer's directly. Our published work sits at NeurIPS, AAAI, ICML, ICLR, and AI4X 2026.
  • Our 16 AAIC posters propose a five-pillar platform organised around a single learning loop: generate a hypothesis, simulate or execute it, verify it against external evidence, update the workflow, and preserve only what survives. A new workflow is committed only when its outputs stand up to biological, statistical, and clinical checks.
  • Internal self-critique is treated as a speedup, not scientific closure — every promotion requires external, falsifiable, reversible feedback.
The platform

Five pillars. One learning loop. Verified at every step.

A collective synthesis of the 16 AAIC abstracts: AI systems that improve their own workflows, but only when new evidence survives biological, statistical, and clinical verification.

The Learning Loop

Generate Simulate / Execute Verify Update Preserve

A new workflow is kept only if it improves external evidence without violating safety constraints.

What gets improved: prompts · tools · memory · simulators · code · verifiers · analysis policies

Pillar 1 · A1, A3, A4, A13

Clinical Digital Twins & Intervention Timing

What improves: physics-informed biomarker models, ODE-gated self-training, conservative RL/MPC world models.

Verifier: AT(N) cascade constraints, Z3/SMT safety checks, NAD⁺ homeostasis bands, coherence audits.

Translational output: earlier treatment windows, safer dosing schedules, calibrated disease-trajectory forecasts.

Pillar 2 · A2, A5, A11, A14, A16

Cellular State Reversal & Multi-Omics

What improves: latent diffusion virtual cells, co-evolving perturbation planners, AI swarms, causal scratchpads, MCTS.

Verifier: GRN hierarchy, conformal uncertainty, execution traces, evidence retrieval, stability tests.

Translational output: DAM reversal hypotheses, rare resilience cell states, epistatic gene interactions, causal neuroinflammatory nodes.

Pillar 3 · A6, A9, A12

Autonomous AD Co-Scientists

What improves: discovery agents retrieve literature, write analysis code, run simulations, critique failures, and refine hypotheses.

Verifier: AD knowledge graphs, pathway databases, statistical execution feedback, human expert review.

Translational output: neuroprotective pathways, vascular-resilience targets, executable experimental designs.

Pillar 4 · A7, A10

Diagnostics & Patient Stratification

What improves: biomarker fusion plus test-time self-verification for difficult, conflicting clinical profiles.

Verifier: pericyte/endothelial markers, p-tau217, imaging, APOE4, expert-like contradiction checking.

Translational output: vascular-dominant AD subtype detection and more reliable atypical-case diagnosis.

Pillar 5 · A8, A15

CNS Drug & Chemistry Optimization

What improves: generative chemistry and RL from verifiable rewards for NAMPT modulators and tau inhibitors.

Verifier: BBB permeability, CNS MPO, docking, lipophilicity limits, cytotoxicity filters.

Translational output: brain-penetrant lead libraries with improved developability before wet-lab validation.

Portfolio-level design rule

Self-improving AI belongs where feedback is external, falsifiable, and reversible. Internal self-critique is a speedup, not scientific closure; promotion requires biological plausibility, execution success, safety bounds, provenance, and rollback.

Inspired by

Four of our AAIC posters build on one of the most inspiring pieces of AD biology we have read this year — Chaubey et al., "Pharmacologic reversal of advanced Alzheimer's disease in mice," Cell Reports Medicine 2026, from the Pieper, Paul, and Kang labs. Restoration of brain NAD⁺ homeostasis via P7C3-A20; reversal of tau pathology and BBB damage; cognitive recovery in mouse models. It is the biology we hope our verification tools can serve.

doi.org/10.1016/j.xcrm.2025.102535

The sixteen

Every poster is a proposal. None is a validated finding.

Peer-reviewed by the AAIC 2026 program committee. AI-methods contributions. Every clinical or biological reference is fully attributed to its source.

Pillar 1 · Digital Twins

Neuro-Symbolic AI for AD: Physics-Informed Biomarker Prediction & Verifiable Intervention Planning

1D temporal FNO under AT(N) cascade priors. Answer Set Programming plans, Z3 SMT-verified for cumulative-dose and toxicity limits.

Enrique · presenting Sun
Pillar 2 · Cell-State

Hierarchical Disease-State Generators for Neurodegenerative Genomics

Conditional latent diffusion with GRN priors for counterfactual cell-state simulation. Conformal prediction over multi-omic perturbation shifts.

Enrique · presenting Sun
Pillar 1 · Digital TwinsAnchored on Pieper 2026

RL with World Models for AD Treatment Timing and Dosing

Action-conditioned world model for NAD⁺ / tau / cognition. Conservative MPC. 47% reduction in cumulative drug burden vs continuous-dose baselines.

David · presenting Sun
Pillar 1 · Digital TwinsAnchored on Pieper 2026

Coherence-Validated Causal World Models for Multi-Scale AD Progression and Pharmacologic Reversal (C3WM)

Monte Carlo Wavelet Coherence regularization. Detects "good MSE / bad simulator" failure mode in counterfactual rollouts.

Enrique · presenting Mon
Pillar 2 · Cell-State

Co-Evolving Virtual Cell Models and Perturbation Planners for AD Drug Discovery

Adversarial architecture — VCM simulates resistance while the planner learns to force the latent state back to homeostasis under toxicity penalties.

Haley · presenting Mon
Pillar 3 · Co-Scientists

Self-Improving Discovery Agents in AI-Driven Neurodegenerative Research

LLM discovery agent with iterative self-reflection over AD knowledge bases. Combinatorial target prioritization; reduced hallucination vs baselines.

Enrique · presenting Sun
Pillar 4 · Diagnostics

Fluid Biomarkers of Pericyte Injury for Precision Vascular Subtyping

sPDGFRβ + ANGPT-2 + p-tau217 stratification. APOE4-enriched vascular-dominant MCI. Neurovascular dimension added to the AT(N) framework.

Haley · presenting Mon
Pillar 5 · ChemistryAnchored on Pieper 2026

AI-Driven Physicochemical Optimization of Allosteric NAMPT Modulators

CNS-MPO-guided generation targeting the NAMPT rear-channel binding pocket. Brain-penetrant candidates without off-target cytotoxicity.

Enrique · presenting Tue
Pillar 3 · Co-Scientists

Execution-Grounded AI Scientists for Autonomous AD Target Discovery

Autonomous LLM agent with an execution environment on ADNI data. 84% analytical idea implementation rate; novel vascular-resilience node identified.

David · presenting Sun
Pillar 4 · Diagnostics

Test-Time Scaling and Self-Verification for Precision AD Diagnostics

Recursive self-critique for AD subtyping. 34% accuracy improvement on atypical presentations by trading generation speed for structured self-correction.

Enrique · presenting Mon
Pillar 2 · Cell-State

Recursively Optimizing AI Swarms for Precision Target Discovery

Persistent-memory multi-agent framework on SEA-AD single-nucleus RNA-seq. 42% higher code-execution success rate; rare cognitive-resilience microglial state.

Haley · presenting Sun
Pillar 3 · Co-Scientists

Neuro-Symbolic Ideation Engines for AD Therapeutics

Medical AI scientist with clinician-engineer co-reasoning. Zero-hallucination methodological proposals via knowledge-graph gating.

Enrique · presenting Sun
Pillar 1 · Digital Twins

Neuro-Symbolic Recursive Self-Verification for AD Modeling

Symbolic verifier gates the recursive self-improvement loop against amyloid / tau kinetics ODEs. 63% long-horizon forecast improvement.

Enrique · presenting Wed
Pillar 2 · Cell-State

Dynamic Causal Discovery: Open-Ended Mapping of Neuroinflammatory Pathways

Momentum-driven evolutionary causal reasoning with a reflective scratchpad. Non-canonical lipid-metabolism / cytokine node discovered.

David · presenting Wed
Pillar 5 · ChemistryAnchored on Pieper 2026

Reinforcement Learning from Verifiable Rewards in CNS Drug Optimization

Closed-loop docking + BBB simulator provides scalar rewards. Test-time recursive thinking; 42% success-rate improvement on tau aggregation inhibitors.

Enrique · presenting Tue
Pillar 2 · Cell-State

Iterative Self-Critique for Uncovering Cryptic Epistasis in AD (MCTS Genomic Reasoning)

Socratic self-refine over multi-hop AD genetics literature. MCTS-guided sub-question decomposition and evidence-retrieval-based logical-branch pruning.

Haley · presenting Wed
Track record

Ten AD-methods papers in 2026.

The AAIC portfolio builds on prior peer-reviewed work published earlier this year. All are AI-methods contributions applied to Alzheimer's tasks; none involve wet-lab, in-vivo, or clinical work. All cite Chaubey et al. (Cell Reports Medicine 2026) as the biology anchor.

Full inventory: OpenReview · publications page

  • AAAI 2026 · Bridge LMReasoning · Oral
    Neuro-Symbolic AI for Alzheimer's Disease: Physics-Informed Biomarker Prediction and Verifiable Intervention Planning
  • ICLR 2026 · Workshop on World Models
    Coherence-Validated Causal World Models for Multi-Scale AD Progression and Pharmacologic Reversal (C3WM)
  • ICLR 2026 · Workshop on World Models
    Reinforcement Learning with World Models for Optimizing AD Treatment Timing and Dosing
  • ICLR 2026 · Workshop LLM Reasoning
    Neuro-Symbolic Active Causal Hypothesis Testing for NAD⁺-Centered AD Reversal (ACHT)
  • ICLR 2026 · Workshop LLM Reasoning
    Autoformalizing Biomedical Text into Verified Knowledge Graph Reasoning: A Neuro-Symbolic Architecture for AD
  • AI4X Accelerate 2026 · Singapore
    Audited Causal Discovery Agents for Brain Resilience and Alzheimer's Reversal
  • MLGenX 2026 · ICLR
    Agentic Active Causal Discovery for AD Reversal: Closing the Genomic Experimental Loop (AACD)
  • MLGenX 2026 · Tiny Paper Track
    Uncertainty-Aware Biomarker Discovery for AD Reversal: Bridging Mouse Models and Human Translation with Conformal Prediction (UABD)
  • MLGenX 2026 · Tiny Paper Track
    Active Learning for Optimal Experimental Design in AD Drug Discovery: Prioritizing NAD⁺-Enhancing Therapeutic Analogs
  • Gen² 2026
    Hierarchical Disease-State Generators for Neurodegenerative Genomics: A Benchmark for Intervention-Conditioned Multi-omic Generation
The foundation

A non-profit is being incorporated.

A dedicated non-profit research foundation is in incorporation as the long-term home for the platform. Until it is live, the work is supported by AIXC Bio MB. Details of jurisdiction and banking will be published once formally registered.

Supporting the AAIC campaign

A bridge fundraiser is in preparation.

The campaign covers AAIC 2026 travel, poster printing, on-site meetings, and six months of infrastructure build. If you would like to be notified when it opens, please email us.

Quarterly written progress updates to every supporter. Statutory financial reporting begins once the foundation is registered.

Contact

Get in touch.

enrique.zueco@aixcbio.com
Zaragoza, Spain · replies within 24 hours

Part of AIXC Bio

Where we sit.

Reversal Initiative is the Alzheimer's research programme of AIXC Bio — an EU-based computational-biology company (Zaragoza HQ, NVIDIA Inception member) focused on AI verification and evaluation for biomedical research. AIXC Bio covers the broader platform; this AAIC campaign is the Alzheimer-focused chapter of that work.