Singapore

An AI agent, faced with the fundamental challenge of validating causal structures in static networks, autonomously developed a novel validation protocol, transforming a causal graph into a sequence for wavelet coherence analysis. This method provided a more direct test of mechanistic coordination than standard graph-based techniques, proving its efficacy with overwhelming statistical significance (p &lt; 0.001). The agent’s core insight was transforming hierarchical causal graphs into analyzable sequences via depth-first search, then applying wavelet coherence analysis to quantify mechanistic coordination. This protocol was a key component of a fully autonomous pipeline that subsequently achieved state-of-the-art drug discovery results (AUPR = 0.87 ± 0.02) from 100,000 protein interactions, recovering known cancer drivers (TP53, TNF) while processing 242,843 decision tokens with zero human interventions. The agent’s methodological innovation represents autonomous identification of research gaps and development of solutions. Key contribution: A novel validation protocol for causal graph validation in static networks (p &lt; 0.001).

AAAI 2026

Agentic Causal Graph Learning for Drug Target Discovery: A Self-Directed AI System at STRING Scale

aupr

pathway enrichment

mechanistic coordination

notears

string database

protein-protein interactions

depth-first search

wavelet coherence

causal graph learning

drug target discovery

causal validation

autonomous research

agentic ai

graph attention networks

active learning

We are pleased to announce the Fortieth AAAI Conference on Artificial Intelligence (AAAI-26), which will be held in Singapore EXPO from January 20 to January 27, 2026.

The purpose of the AAAI conference series is to promote research in Artificial Intelligence (AI) and foster scientific exchange between researchers, practitioners, scientists, students, and engineers across the entirety of AI and its affiliated disciplines. AAAI-26 will feature technical paper presentations, special tracks, invited speakers, workshops, tutorials, poster sessions, senior member presentations, competitions, and exhibit programs, and a range of other activities to be announced.<br><br>

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We are pleased to announce the Fortieth AAAI Conference on Artificial Intelligence (AAAI-26), which will be held in Singapore EXPO from January 20 to January 27, 2026.

An AI agent, faced with the fundamental challenge of validating causal structures in static networks, autonomously developed a novel validation protocol, transforming a causal graph into a sequence for wavelet coherence analysis. This method provided a more direct test of mechanistic coordination than standard graph-based techniques, proving its efficacy with overwhelming statistical significance (p < 0.001). The agent’s core insight was transforming hierarchical causal graphs into analyzable sequences via depth-first search, then applying wavelet coherence analysis to quantify mechanistic coordination. This protocol was a key component of a fully autonomous pipeline that subsequently achieved state-of-the-art drug discovery results (AUPR = 0.87 ± 0.02) from 100,000 protein interactions, recovering known cancer drivers (TP53, TNF) while processing 242,843 decision tokens with zero human interventions. The agent’s methodological innovation represents autonomous identification of research gaps and development of solutions. Key contribution: A novel validation protocol for causal graph validation in static networks (p < 0.001).

workshop paper

Predicting the treatment response for a specific drug in a specific situation is a key goal in drug development and personalized medicine. A vast amount of relevant data is generally available, ranging from microscopic, such as the molecular structure of proteins, to the macroscopic, such as response data for other drugs in other situations. Neural networks are well suited for integrating these complex multimodal datasets and connecting them to the final prediction target. In this work, we adopt an existing method for predicting tumor volume progression using Neural Ordinary Differential Equations (Neural-ODEs) and Graph Neural Networks (GNNs) on patient-derived xenograft (PDX) data. We implement this method in a flexible research platform (LynxKite) and demonstrate its potential by extending the input dataset with protein embeddings from ESM-2. The addition of ESM-2 embeddings increased the accuracy of predictions from 68.1% to 75.5%.

Using ESM-2 protein embeddings for tumor volume prediction in an ODE+GNN architecture

Accurate and scalable machine-learned inter-atomic potentials (MLIPs) are essential for molecular simulations ranging from drug discovery to new material design. Current state-of-the-art models enforce roto-translational symmetries through equivariant neural network architectures, a hard-wired inductive bias that can often lead to reduced flexibility, computational efficiency, and scalability. In this work, we introduce \textbf{TransIP}: \textbf{Trans}former-based \textbf{I}nter-Atomic \textbf{P}otentials, a novel training paradigm for interatomic potentials achieving symmetry compliance without explicit architectural constraints. Our approach guides a generic non-equivariant Transformer-based model to learn SO(3)-equivariance by optimizing its representations in the embedding space. Trained on the recent Open Molecules (OMol25) collection, a large and diverse molecular dataset built specifically for MLIPs and covering different types of molecules (including small organics, biomolecular fragments, and electrolyte-like species), TransIP attains comparable performance in machine-learning force fields versus state-of-the-art equivariant baselines. Further, compared to a data augmentation baseline, TransIP achieves 40% to 60% improvement in performance across varying OMol25 dataset sizes. More broadly, our work shows that learned equivariance can be a powerful and efficient alternative to equivariant or augmentation-based MLIP models.

Learning Inter-Atomic Potentials without Explicit Equivariance

Small interfering RNA (siRNA) is a short double-stranded RNA molecule (~21–23 nucleotides) with the potential to cure diseases by silencing the function of target genes. Due to its well-understood mechanism, many siRNA-based drugs have been evaluated in clinical trials. However, selecting effective binding regions and designing siRNA sequences requires extensive experimentation, making the process costly. As genomic resources and publicly available siRNA datasets continue to grow, data-driven models can be leveraged to better understand siRNA–mRNA interactions. To fully exploit such data, curating high-quality siRNA datasets is essential to minimize experimental errors and noise. We propose siDPT: siRNA efficacy Prediction via Debiased Preference-Pair Transformer, a framework that constructs a preference-pair dataset and designs an siRNA–mRNA interactive transformer with debiased ranking objectives to improve siRNA inhibition prediction and generalization. We evaluate our approach using two public datasets and one newly collected patent dataset. Our model demonstrates substantial improvement in Pearson correlation and strong performance across other metrics.

siDPT: siRNA Efficacy Prediction via Debiased Preference-Pair Transformer

Learning path recommendation (LPR) is essential for alleviating information overload in large-scale online education. However, existing approaches often rely on static records of student histories and underexploit the semantic richness of learning resources, leading to recommendations that are misaligned with learners’ evolving knowledge states. In this work, we move from static records to dynamic contexts, introducing a context-driven framework that systematically acquires, organizes, compresses, and continuously updates multi-source information. Within this framework, Large Language Models (LLMs) interpret educational content and generate candidate paths, while Reinforcement Learning (RL) and Knowledge Tracing Models (KTM) iteratively refine recommendations through adaptive feedback. This context-driven perspective enhances adaptability, diversity, and explainability of LPR.
We validate our approach through extensive experiments on real-world datasets, including Math, Physics, and MOOPer. Results show that the proposed approach consistently outperforms strong baselines across multiple evaluation metrics, achieving significant gains in both learning promotion and diversity, while maintaining competitive efficiency.

Context-Driven Learning Path Recommendation: From Static Records to Dynamic Contexts

Elementary teachers face significant time burdens creating engaging, curriculum-aligned storytelling videos, often requiring hours of manual editing. We present a web-based platform that integrates a four-stage ML pipeline to automate video authoring from static drawings while preserving pedagogical control. Our system combines: (1) SAM-based character extraction with speech-bubble removal, (2) CLIP zero-shot character-text matching for story-guided segmentation, (3) LightGBM protagonist detection using visual saliency and narrative centrality features, and (4) emotion-aware motion generation synchronized with narrative context. Unlike general animation tools, our design prioritizes curriculum alignment through teacher-controllable story pacing, character emphasis, and narrative voice selection. In a user study with elementary teachers creating standards-aligned content, our platform substantially reduced authoring time compared to baseline video editing tools, with teachers reporting high creative control and strong satisfaction with pedagogical quality. Qualitative interviews revealed that AI-generated motion suggestions inspired teachers to explore new storytelling approaches they had not previously considered. This work demonstrates how context-aware, integrated ML systems can democratize educational content creation while amplifying rather than replacing teacher expertise.

Teacher-in-the-Loop Story-to-Video: Vision-Language Models and ML Ranking for Educational Content Authoring

Large Language Models (LLMs) are increasingly integrated into intelligent tutoring systems to provide human-like and adaptive instruction. However, most existing approaches fail to capture how students' knowledge evolves dynamically across their proficiencies, conceptual gaps, and forgetting patterns. This challenge is particularly acute in mathematics tutoring, where effective instruction requires fine-grained scaffolding precisely calibrated to each student's mastery level and cognitive retention. To address this issue, we propose TASA (Teaching According to Students' Aptitude), a student-aware tutoring framework that integrates persona, memory, and forgetting dynamics for personalized mathematics learning. Specifically, TASA maintains a structured student persona capturing proficiency profiles and an event memory recording prior learning interactions. By incorporating a continuous forgetting curve with knowledge tracing, TASA dynamically updates each student's mastery state and generates contextually appropriate, difficulty-calibrated questions and explanations. Empirical results demonstrate that TASA achieves superior learning outcomes and more adaptive tutoring behavior compared to representative baselines, underscoring the importance of modeling temporal forgetting and learner profiles in LLM-based tutoring systems.

Teaching According to Students' Aptitude: Personalized Mathematics Tutoring via Persona-, Memory-, and Forgetting-Aware LLMs

Sequential Recommender Systems (SRS) have been widely used in various fields, such as e-commerce, advertisement, etc. However, existing SRS models are often sub-optimal in educational scenarios, because stricter privacy regulations lead to higher sparsity in educational data. Thus, for better educational recommendation, we propose a novel multimodal SRS model, named OMSEE-REC (Multimodal Sequential Recommendation of On-line courses with MLLM-Enhanced Semantic Edge Embedding), that significantly enhances the effectiveness of course recommendations. By integrating multimodal information to enrich learning representations, the data sparsity problem gets alleviated. In OMSEE-REC, a multimodal large language model (MLLM) is utilized to transform non-text modalities, such as images, into refined textual representations. Then, we propose generating item semantic edge embeddings to enhance the semantic relations among courses, which fills the gap in cross-modal semantics. Next, for analyzing users' long- and short-term preferences, the enhanced information of items is input into MLLMs as prompts to derive user semantic edge embeddings. 
Finally, a non-intrusive attention mechanism is introduced into the OMSEE-REC, which utilizes semantic edge embeddings as lightweight side information to guide embedding propagation. Empirical evaluations on dual-domain datasets—including large-scale general recommendation data (Amazon) and a private multimodal educational dataset—demonstrate the superior performance of OMSEE-REC, confirming its effectiveness in the fields of intelligent education and sequential recommendation modeling.

Multimodal Sequential Recommendation of On-line courses with MLLM-Enhanced Semantic Edge Embedding

Knowledge Tracing (KT) is a fundamental task that estimates a learner’s knowledge state and predicts future performance based on their past interactions. However, existing transformer-based KT models rely on simple index-distance-based attention decay, which fails to adequately capture the learner’s forgetting effects and the complex dependencies among past interactions. To address this limitation, we propose a novel positional encoding method, Reconstruction Attention Positional Encoding (RAPE), which incorporates Base-Level Activation (BLA)−inspired by the ACT-R theory of cognitive psychology−into the attention mechanism. RAPE enhances prediction accuracy by jointly modeling the learner’s cognitive forgetting process and problem-solving sequence within the Transformer framework. Experiments on three public benchmark datasets demonstrate that RAPE consistently outperforms both traditional positional encoding approaches and state-of-the-art Relative Forgetting-Aware (RFA) models in terms of predictive accuracy. Our study presents a novel approach to integrating cognitive forgetting theory into neural KT, improving both interpretability and predictive performance in long-term learning environments, and promoting its potential application in intelligent educational systems.

Reconstruction Attention Positional Encoding for Knowledge Tracing: Integrating Cognitive Forgetting into Transformer-Based Models

The rapid advancement of large-scale language models (LLMs) has shown their potential to transform intelligent education systems (IESs) through automated teaching and learning support applications. However, current IESs often rely on single-turn static question-answering, which fails to assess learners' cognitive levels, cannot adjust teaching strategies based on real-time feedback, and is limited to providing simple one-off responses. To address these issues, we introduce AgentTutor, a multi-turn interactive intelligent education system to empower personalized learning. It features an LLM-powered generative multi-agent system and a learner-specific personalized learning profile environment that dynamically optimizes and delivers teaching strategies based on learners' learning status, personalized goals, learning preferences, and multimodal study materials. It includes five key modules: curriculum decomposition, learner assessment, dynamic strategy, teaching reflection, and knowledge \& experience memory. We conducted extensive experiments on multiple benchmark datasets, AgentTutor significantly enhances learners' performance while demonstrating strong effectiveness in multi-turn interactions and competitiveness in teaching quality among other baselines.

AgentTutor: Empowering Personalized Learning with Multi-Turn Interactive Teaching in Intelligent Education Systems

Synthetic data generation offers promise for addressing data scarcity and privacy concerns in educational technology, yet practitioners lack empirical guidance for selecting between traditional resampling techniques and modern deep learning approaches. This study presents the first systematic benchmark comparing these paradigms using a 10,000-record student performance dataset. We evaluate three resampling methods (SMOTE, Bootstrap, Random Oversampling) against three deep learning models (Autoencoder, Variational Autoencoder, Copula-GAN) across multiple dimensions: distributional fidelity (Kolmogorov-Smirnov distance, Jensen-Shannon divergence), machine learning utility (Train-on-Synthetic-Test-on-Real scores), and privacy preservation (Distance to Closest Record). Our findings reveal a fundamental trade-off: resampling methods achieve near-perfect utility (TSTR: 0.997) but completely fail privacy protection (DCR: 0.00), while deep learning models provide strong privacy guarantees (DCR: 1.00) at significant utility cost. Variational Autoencoders emerge as the optimal compromise, maintaining 83.3% predictive performance while ensuring complete privacy protection. We provide actionable recommendations: use traditional resampling for internal development where privacy is controlled, and VAEs for external data sharing where privacy is paramount. This work establishes a foundational benchmark and practical decision framework
for synthetic data generation in learning analytics.

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