Panels, tutorials, workshops and more. Explore the full program and make the most of your MICAI experience. Connect, learn, and be part of the future of AI.
KEYNOTE SPEAKERS
CHALERAN, USA
UNIVERSITÉ PARIS-SACLAY, FRANCE
CARNEGIE MELLON UNIVERSITY, USA
AAAI, USA
KEN KENNEDY INSTITUTE,
RICE UNIVERSITY, USA
INSTITUTE FOR EXPERIENTIAL AI, NORTHEASTERN UNIVERSITY, USA
UNIVERSITÉ DE
LORRAINE, FRANCE
PIERO P BONISSONE
ANALYTICS LLC, USA
TECHNICAL UNIVERSITY
OF MADRID, SPAIN
NEW YORK
UNIVERSITY, USA
PONTIFICAL CATHOLIC UNIVERSITY OF RIO DE JANEIRO, BRAZIL
UNIVERSITY OF WYOMING, USA
UBER AI LABS, USA
GOOGLE,
USA
IWATE PREFECTURAL UNIVERSITY, JAPAN
UNIVERSITY OF CALIFORNIA,
USA
NEC LABORATORIES,
USA
VIVOMIND,
USA
Dive deep into the world of artificial intelligence with our tutorials, designed for researchers, practitioners, and enthusiasts who want to expand their technical skills and practical understanding.
In person | Limited capacity.
Register in advance: You must register in advance to participate.
In this tutorial, we will explore two closely interconnected topics. The first examines, from a simple mathematical perspective, why a machine—in this case, a neural network—is capable of learning to solve a problem, such as a classification problem. One of the formal results underlying the training of a single-neuron network, in this case a perceptron, will be presented, along with an illustrative example.
The second topic explores how neural networks, as universal function approximators, have become one of the most attractive tools for solving a wide range of problems. An illustrative example will also be presented.
Finally, a set of conclusions and potential directions for future research will be discussed.
Target audience
Primarily undergraduate students.
Pre-requisites
Duration: 3 Hours
The distance between a working prototype and an agent an organization will connect to its inventory, billing, or customer records is engineering, not model capability.
It is the harness that assembles context and absorbs failure, the control strategy that decides when to act and when to stop, the integration layer that reaches other applications, and the governance that follows sensitive data across every boundary it crosses.
Participants build that stack from the ground up. They first implement a control loop by hand — tool registry, observation handling, termination conditions, step and token budgets — treating it as the current default among several viable strategies rather than as the definition of an agent, and identifying which of its properties any successor mechanism must still provide. They then construct the harness: context and memory management as trajectories outgrow the window, tool errors surfaced as recoverable observations rather than exceptions, idempotency keys and compensating actions for writes, timeouts and backoff, per-trajectory cost and latency accounting, and structured logging built for audit and offline replay.
The second half covers integration. Participants build Model Context Protocol servers over a sandboxed enterprise service, applying tool granularity, schema design that constrains the argument space, strict read/write separation, least-privilege scoping, and version pinning. They then build a client connecting several servers: credentials held outside the model context, data minimization enforced at the boundary, personal data redacted before egress, retrieval filtered by the caller’s entitlements, and provenance tracked so tool output is never treated as instruction. Approval gates suspend and resume execution before irreversible operations.
The session closes with evaluation-driven development: building the regression suite before tuning prompts, and scoring tool selection and argument construction independently of final-answer quality. All exercises run on a local sandbox and free tier Google Colab. No corporate credentials or real personal data are used.
Target audience
Practitioners, engineers, graduate students, and researchers who have built prototype agents and now need them to operate reliably against real organizational systems. Equally relevant to technical leads evaluating whether agent architectures are appropriate for internal automation, and to researchers who want an accurate picture of the engineering constraints surrounding deployed agentic systems. Participants working in regulated or data-sensitive contexts will find the governance and permission-aware retrieval material directly applicable.
Pre-requisites
Current intelligent systems are based on correlations which do not necessarily correspond to cause-effect relations, so they can be deceiving when we want to make decision based on this type of models.
Causal models are an alternative to extend the capabilities of current systems; explain the reasons for certain decisions, predict the effect of interventions and imagine alternative situations. However, learning causal models from data is a challenge, as from “observational” data, in general, we cannot obtain a unique causal model. In this tutorial I will present an introduction to causal models, in particular to causal graphical models.
We will see how we can make inferences based on these models: predictions and counterfactuals. The main focus will be on causal discovery, that is how to learn causal models from observational data. We will review the main types of algorithms, and a technique to obtain a unique causal model from a Markov equivalence class. Finally, I will illustrate the application of causal discovery in different domains: causal modeling of COVID-19, predicting the price of energy, and incorporating causal models in reinforcement learning and its application in robotics.
Target audience
Researchers and students interested in machine learning, explainable AI, reinforcement learning and forecasting.
Pre-requisites
Duration: 3 Hours
The web contains more information than any team can manually track. Prices change, job postings appear, news breaks, and reports are published — often faster than humans can monitor them.
This tutorial teaches participants how to build a practical, deployable multi-agent system that autonomously searches the web, filters results, verifies relevance, and delivers a structured summary report, with minimal human intervention.
Participants will construct a two-agent pipeline from scratch. The first agent — the Collector — queries the web through a search API using advanced operators such as site restrictions, boolean logic, date filters, and language targeting. The second agent — the Synthesizer — uses a large language model to verify whether each result is genuinely relevant, generate concise summaries, and produce a formatted, downloadable report.
Throughout the tutorial, participants will confront and solve real-world challenges that arise in production monitoring systems: avoiding irrelevant or geographically mismatched results, handling inconsistent date formats, managing API rate limits, preventing AI hallucinations in generated summaries, implementing a caching layer to avoid redundant API calls, and deploying the finished system as a live web application accessible from any browser.
The architecture presented is intentionally general-purpose. While the tutorial uses news monitoring as its working example, the same pipeline can be adapted to track job listings, academic publications, government reports, product prices, social media mentions, or any other web-based content — simply by changing the search queries and output format. By the end of the session, participants will have a working, deployed AI monitoring agent and the practical knowledge to adapt it to their own domain, language, and use case.
Target audience
This tutorial is designed for practitioners who work with information and want to automate part of that work using AI. The primary audience includes:
• Data analysts, researchers, journalists, and policy professionals who regularly monitor web-based content and want to replace or augment manual workflows with an intelligent, automated system.
• Software developers interested in building production-ready AI pipelines that interact with external data sources and produce structured outputs.
• Students and professionals exploring practical applications of large language models beyond conversational chatbots.
The tutorial is also well-suited for anyone who has heard about AI agents but wants hands-on experience building one that solves a real, immediately useful problem.
Pre-requisites
Artificial Intelligence (AI) is increasingly shaping scientific, industrial, and social transformation. However, as AI models grow in complexity and scale, two critical challenges have become central to their responsible development: environmental sustainability and model explainability.
This tutorial introduces participants to two complementary perspectives for designing more responsible AI systems.
This first part presents the core concepts of sustainable AI and the two main approaches: Green-by-AI, using AI to support environmental goals, and Green-in-AI, reducing the environmental footprint of AI systems themselves. As a practical example based on the Green-in-AI approach, participants will use CodeCarbon to measure and report energy consumption and estimated carbon emissions from a simple AI experiment.
The second part addresses Explainable AI. It discusses what it means for an AI model to be explainable, why explainability is relevant for trust, transparency, validation, and decision-making, and how it can be achieved through different methods and techniques. Practical examples will be presented to illustrate how explainability can support the interpretation of model behavior and results.
Finally, the tutorial will discuss current recommendations, challenges, and opportunities in Green AI and Explainable AI, emphasizing their relevance for professionals, researchers, and students interested in developing AI solutions that are not only accurate, but also efficient, transparent, and socially responsible.
Target audience
This tutorial is aimed at researchers, graduate students, and practitioners in Artificial Intelligence.
Pre-requisites
In this hands-on tutorial, we will explore the design and deployment of Retrieval-Augmented Generation (RAG) agents, progressing from naive architectures to advanced multimodal systems.
The session is structured to be LLM-agnostic, focusing strictly on foundational architecture requirements rather than specific proprietary models. Participants will develop the analytical criteria necessary to evaluate complex business scenarios and systematically select and apply the most effective RAG framework for real-world use cases.
Target audience
Master students, beginners to intermediate developers or senior years undergraduates
Pre-requisites
Data visualizations are everywhere, in research papers, business reports, dashboards, and presentations, yet a chart that is technically correct is not the same as one that communicates clearly.
This tutorial introduces Storytelling with Data, a practical framework for turning data into a message an audience will understand, remember, and act on. Adapted from the instructor’s undergraduate course at Tecnológico de Monterrey, the session walks through the full path from analysis to communication: identifying who the audience is and what they need to know, choosing the right visual display for the message, removing visual clutter, directing attention deliberately, and structuring a narrative across slides or reports.
Participants will examine common visualization pitfalls, such as misleading bar-chart baselines, distracting 3D effects, and overused pie charts, and will see how Gestalt principles and preattentive attributes, including color, size, and position, can be used intentionally rather than decoratively. Although AI tools can now generate a chart in seconds, the tutorial argues that judgment about what to show, to whom, and why remains a distinctly human skill. A hands-on segment will have participants redesign a flawed visualization using Python libraries Plotly and Bokeh, applying the session’s principles to a small dataset.
The tutorial closes with techniques for assembling individual visuals into a coherent data story, including horizontal and vertical logic for slide decks. By the end, participants will leave with a repeatable checklist for designing and presenting visualizations clearly, whether for an academic paper, a business report, or a public talk.
Target audience
Anyone who works with data and needs to present it clearly to others, including students, researchers, and professionals across disciplines. No specific technical or AI background is assumed; the tutorial is equally relevant to a data scientist, a social science researcher, an engineer, or a business analyst.
Pre-requisites
Duration: 3 Hours
Large language models (LLMs) now permeate research, industry, and education, yet they remain largely opaque: we observe what they say, but rarely understand how they compute it. Mechanistic interpretability (MI) is an emerging research field that seeks to reverse-engineer neural networks into human-understandable algorithms by analyzing their internal weights and activations.
Beyond its scientific interest, MI has become central to AI safety, model debugging, and trustworthy deployment, and it offers a remarkably accessible entry point into LLM research: meaningful experiments can be run on small open models using free cloud notebooks.
This tutorial provides a practical, code-first introduction to MI for participants with no prior exposure to the field. After a concise conceptual overview of the transformer architecture and the MI research landscape, participants will work through guided Google Colab notebooks using the open-source TransformerLens library on GPT-2.
Hands-on activities include inspecting and visualizing attention patterns, applying the logit lens to trace how predictions form across layers, and using activation patching to causally locate where factual knowledge is stored inside a model. A final module introduces sparse autoencoders (SAEs) and feature-based interpretability, connecting participants to current research directions and community tools such as SAELens and Neuronpedia. The session emphasizes learning by doing: roughly 70% of the time is spent on guided coding exercises with incremental checkpoints, so participants of different levels can advance at their own pace.
By the end, attendees will be able to run interpretability experiments on open models, understand the core experimental methods of the field, and identify concrete paths to start research or teaching activities in interpretability. All materials (notebooks, slides, and solutions) will be openly released in English and Spanish.
Target audience
Undergraduate and graduate students, researchers new to interpretability, and educators who want to bring LLM internals into their AI courses. No prior experience with interpretability is assumed.
Pre-requisites
Duration: 3 Hours
Hyper-heuristics provide a high-level approach to optimization by focusing on the automated selection or generation of heuristics rather than solving each problem instance through a manually designed method.
This tutorial introduces the fundamental ideas behind selection hyper-heuristics and shows how genetic algorithms can be used as a practical mechanism for evolving them. The session will begin with an overview of hyper-heuristics, including their motivation, main categories, and relevance for solving families of optimization problems.
We will then provide a concise introduction to genetic algorithms, covering representation, fitness evaluation, selection, crossover, mutation, and evolutionary search dynamics.
After establishing these foundations, we will introduce a representative optimization problem that will serve as the running example throughout the tutorial. Using this problem as a testbed, participants will learn how to define low-level heuristics, encode selection hyper-heuristics as individuals in a genetic algorithm, evaluate their performance across multiple problem instances, and evolve improved heuristic strategies over generations.
The hands-on component will be implemented in Python, allowing participants to build a basic evolutionary framework and experiment with different design decisions. The tutorial will combine conceptual explanation with practical implementation, emphasizing representation, fitness definition, generalization, and performance comparison.
By the end of the session, participants will understand how genetic algorithms can be used to automatically generate selection hyper-heuristics and will have implemented a working prototype for evolving heuristic strategies for an optimization problem. The tutorial is intended for students, researchers, and practitioners interested in evolutionary computation, automated heuristic design, algorithm selection, and practical optimization.
Target audience
This tutorial is aimed at graduate students, researchers, faculty, and practitioners interested in optimization, evolutionary computation, and intelligent search. It introduces how genetic algorithms can be used to develop hyper-heuristics for selecting or combining lower-level heuristics.
Pre-requisites
Workshops
Workshops bring together contributions focused on key topics in artificial intelligence, join expert-led workshops to build skills, explore tools, and apply AI in real-world contexts.
The rapid integration of artificial intelligence into educational contexts is shifting not only how we teach, but how knowledge is produced, evaluated, and distributed. Generative models, adaptive systems, and AI-assisted tools are now part of everyday academic practice, raising questions that go well beyond efficiency or access.
We invite contributions that engage with these changes at a deeper level. We are interested in work that examines not just what AI does in education, but how it reshapes our assumptions about learning, authorship, and expertise.
Goals
We invite authors to submit their original research papers on Artificial Intelligence and education, written in English. Submissions should present novel contributions, whether empirical, theoretical, or applied, that advance understanding in this evolving field.
We welcome contributions that question assumptions, explore tensions, and offer grounded insights into the evolving relationship between artificial intelligence and education.
Accepted papers will be presented orally during the workshop and included in the official proceedings. The proceedings will be published in the Lecture Notes in Artificial Intelligence (LNAI) series by Springer and indexed in Scopus.
Suggested Topics
Submissions may address, but are not limited to, the following themes:
• Generative AI and the transformation of assessment practices
• Academic integrity, authorship, and originality in AI-assisted work
• Human–AI collaboration in learning and teaching processes
• Design and evaluation of AI-driven educational tools and systems
• Bias, fairness, and ethical implications of AI in educational settings
• AI literacy and the competencies required for students and educators
• The impact of AI on curriculum design and disciplinary boundaries
• Institutional strategies and policies for integrating AI in education
• Learning analytics and data-driven decision-making in AI-supported environments
• The role of AI in expanding or constraining access to education
• Case studies of AI implementation in diverse educational contexts
• The epistemological implications of AI in knowledge production and validation
Submission and Participation
All submissions will undergo a peer-review process conducted by an international board of experts. Accepted papers will be scheduled for oral presentation and discussion during the workshop sessions.
In addition to contributing papers, the workshop will feature invited keynote speakers addressing high-impact topics at the intersection of AI and education, helping to frame the broader conversation and identify emerging challenges.
Organizers
Program Committee
Hybrid Intelligent Systems (HIS) deal with real-world complexity with a multidisciplinary approach and a plurality of artificial intelligence techniques. Complex systems, including biology, medicine, logistics, management, engineering, humanities, industrial environments, and technological applications, have significant difficulty modeling and interacting with their processes using classical methods. This workshop aims to discuss research on progress working with hybrid intelligent systems applied to different fields.
The HIS2026 is a workshop conference held by the Mexican Society of Artificial Intelligence (SMIA) in its central Mexican International Conference on Artificial Intelligence (MICAI).
HIS2026 covers and gathers research topics associated with Hybrid Intelligent Systems and their capabilities for modeling, controlling, negotiating, predicting, and managing all these complex processes.
PAPER
Full papers describing final results on original research within the conference topics.
POSTER
Posters describing advances in original research or prototypes within the conference topics.
TOPICS:
Hybrid Intelligent Systems for Industrial applications.
Hybrid Intelligent Systems for Technological Applications.
Hybrid Intelligent Systems for Argumentation and Negotiation.
Synthetic datasets.
Applications of Agents, LLMs, VLMs, RAG, etc.
Applications of Artificial Neural Networks.
Applications Swarm Intelligence.
Applications of Automatic programming.
Agent-Based Social Simulation, especially using Soft Computing Techniques.
Theoretical Approaches with Social Network Analysis.
Applications on Virtual Social Networks.
Virtual and Intelligent Games based on Artificial Societies (like RPGs).
Social Data Mining.
Artificial Societies and Social Simulation.
Other application domains for Hybrid Intelligent Systems: Blogs, Cultural Aspects, Web Fan Clubs, Topic Communities, Opinion Dynamics, Diffusion Networks, Consumer Behavior
Organizers
Program Committee
Artificial intelligence has become a transformative force in healthcare, enabling systems that can interpret medical images and biosignals with accuracy comparable to, and in some cases exceeding, that of clinical experts. However, the development of reliable, safe, and equitable AI tools for medical applications remains an open research challenge that demands dedicated interdisciplinary forums.
WIMS 2026 (Workshop on Intelligent Medical Imaging and Signal Processing) aims to be an intimate and focused forum for researchers, clinicians, and engineers to present and discuss advances at the intersection of artificial intelligence and clinical data analysis. The workshop targets two complementary domains:
1. Medical imaging: automated analysis of radiological scans (X-ray, CT, MRI, ultrasound), histopathological slides, retinal fundus images, and endoscopic video.
2. Biomedical signal processing: AI-driven interpretation of physiological time series such as ECG, EEG, EMG, and photoplethysmography (PPG).
The specific goals of WIMS 2026 are:
1. Provide a dedicated venue within MICAI for work at the boundary of AI and biomedicine, a growing area that currently lacks a dedicated forum in Mexico’s leading AI conference.
2. Promote the exchange of methodological advances, including deep learning architectures, foundation models, graph neural networks, and uncertainty quantification, applied to medical data.
3. Encourage interdisciplinary collaboration between computer scientists, biomedical engineers, and medical practitioners from Mexico, Latin America, and abroad.
4. Highlight challenges specific to clinical deployment: limited annotated data, domain shift across hospitals and devices, regulatory requirements, and explainability.
5. Foster the development of a research community around medical AI in Mexico, connecting students and early-career researchers with established international experts.
Upon acceptance, the organizers will immediately disseminate the Call for Papers (CfP) through the following channels:
1. MICAI 2026 official website and mailing list
2. SMIA (Sociedad Mexicana de Inteligencia Artificial) newsletter and mailing list
3. SOMIB (Sociedad Mexicana de Ingeniería Biomédica) communication channels
4. IEEE EMBS Latin America chapter mailing list
5. Personal academic networks of the organizers and Program Committee members
6. Social media (LinkedIn, X/Twitter, ResearchGate) using hashtags #MICAI2026 #MedicalAI #WIMS2026
7. Direct invitation emails to researchers active in relevant MICCAI, MIDL, and EMBC communities
WIMS 2026 will welcome original contributions covering, but not limited to, the following topics:
1. Medical Image Analysis
* Segmentation, detection, and classification of anatomical structures and lesions
* Deep learning for radiology: X-ray, CT, MRI, and PET image analysis
* Computational histopathology and whole-slide image analysis
* Retinal fundus image analysis and ophthalmological AI
* Endoscopy and surgical video understanding
* 3D volumetric analysis and reconstruction
* Image registration and multi-modal fusion
* Generative models and synthetic data for medical imaging (GANs, diffusion models)
2. Biomedical Signal Processing with AI
* Deep learning for ECG arrhythmia detection and cardiovascular monitoring
* EEG-based brain-computer interfaces (BCI) and neurological disorder diagnosis
* EMG signal analysis for prosthetics and rehabilitation
* Photoplethysmography (PPG) and wearable biosignal processing
* Multimodal physiological signal fusion
* Foundation models and self-supervised learning for biosignals
3 Methodological and Translational Challenges
* Transfer learning, domain adaptation, and domain generalization in clinical settings
* Federated learning and privacy-preserving methods for medical data
* Explainability, interpretability, and uncertainty quantification in medical AI
* Fairness and bias mitigation in clinical AI systems
* Annotation-efficient learning: semi-supervised, weakly supervised, and self-supervised approaches
* AI deployment in resource-limited healthcare environments
* Benchmarking, datasets, and evaluation protocols for medical AI
Organizers
Program Committee
Artificial Intelligence is rapidly transforming industries and creating new opportunities for innovation, productivity, and value creation. However, many organizations continue to face significant challenges when moving from experimentation and pilot initiatives to enterprise-wide adoption and measurable impact.
This workshop aims to bring together researchers, practitioners, executives, consultants, and innovation leaders to explore the organizational, strategic, governance, and human dimensions of Artificial Intelligence adoption.
The workshop will provide a forum for presenting and discussing research findings, practical experiences, case studies, methodologies, frameworks, governance models, organizational structures, and lessons learned from real-world AI implementation initiatives. Topics include AI strategy, responsible AI, AI governance, organizational readiness, change management, AI operating models, capability development, AI maturity assessment, and AI value measurement.
By fostering collaboration between academia and industry, the workshop seeks to advance knowledge and promote evidence-based approaches that enable responsible, scalable, and sustainable AI transformation across organizations and society.
The workshop welcomes contributions from both research and industry communities that help bridge the gap between AI innovation and successful organizational adoption.
The workshop also aims to stimulate future research collaborations and the development of evidence-based frameworks for successful AI adoption and governance.
The workshop will issue an international Call for Papers through MICAI communication channels, universities, professional associations, research networks, industry communities, and the Strategic AI Framework global ecosystem across Latin America, Europe, and Africa.
We invite researchers, practitioners, industry leaders, consultants, graduate students, and innovation professionals to submit original research papers, industrial case studies, experience reports, frameworks, methodologies, and applied research related to Artificial Intelligence adoption and organizational transformation.
We particularly encourage submissions that present empirical evidence, longitudinal studies, industrial case studies, adoption frameworks, governance models, and lessons learned from large-scale AI transformation initiatives.
Topics of interest include, but are not limited to:
• AI Strategy and Roadmaps
• AI Governance and Responsible AI
• AI Adoption Frameworks
• AI Maturity Assessment
• Enterprise AI Operating Models
• AI Centers of Excellence
• Organizational Design for AI
• AI Change Management and Capability Development
• Human-AI Collaboration
• Generative AI Adoption
• AI ROI and Business Value Measurement
• AI Product Management
• AI Transformation Programs
• AI Ethics and Governance
• Industry Case Studies and Lessons Learned
AI Adoption Research
Socio-Technical Systems and AI
Human Factors in AI Adoption
AI Readiness Assessment
Organizational Learning and AI
AI Capability Development
Empirical Studies on AI Transformation
Special emphasis will be given to contributions that bridge AI research and real-world implementation, demonstrating measurable organizational, social, or business impact. All submissions will undergo peer review according to MICAI standards and accepted papers will be presented during the workshop.
Organizers
Program Committee
Training a high-accuracy model in a controlled setting is only a small part of delivering machine learning that works in the real world. The harder, less-published problems lie in operationalizing ML, that is, reproducible pipelines, continuous training and delivery, monitoring for data and concept drift, governance, and the engineering discipline collectively known as MLOps, and in learning across decentralized, privacy-sensitive data through Federated Learning (FL).
These two strands meet under the broader umbrella of machine learning systems: how models are built, deployed, maintained, and trusted at scale.BeMoSys aims to create a focused forum at MICAI 2026 where researchers and practitioners from Mexico, Latin America, and the broader international community can share recent results, exchange engineering experience, and discuss open problems at the intersection of ML systems, Federated Learning, and MLOps.
The workshop seeks to bridge the persistent gap between cutting-edge ML research and reliable production deployment, with special attention to settings that are common in the region: heterogeneous data sources, limited infrastructure, regulatory constraints on data sharing, and the need for cost-efficient, maintainable systems.
Dissemination: a Call for Papers distributed through MICAI/SMIA channels, relevant mailing lists (ML-news, FL portal), social media, and the organizers’ academic networks across Mexico and Latin America.
Organizers
Program Committee
The goal of the Workshop on Automated Heuristic Design and Algorithm Selection (AHDAS) is to provide a specialized forum for researchers and practitioners interested in the automation of algorithmic decision-making for optimization and search. The workshop will focus on hyper-heuristics, automated algorithm selection, algorithm portfolios, automated heuristic generation, automated algorithm configuration, meta-learning, neuroevolution, and learning-based optimization.
The workshop seeks to connect complementary perspectives from artificial intelligence, computational intelligence, operations research, evolutionary computation, machine learning, and automated machine learning. Its purpose is to promote and encourage a critical and nourishing discussion on methods that can automatically design, select, configure, learn, or adapt algorithms according to problem characteristics, instance features, performance feedback, or application requirements.
By bringing this discussion to the Mexican International Conference on Artificial Intelligence (MICAI) 2026, the workshop aims to incentivize collaboration, disseminate recent advances, identify open research challenges, and strengthen the visibility of automated heuristic design and algorithm selection within the broader AI community.
The Workshop on Automated Heuristic Design and Algorithm Selection (ADHAS) invites submissions on methods, models, systems, and applications related to the automation of algorithmic decision-making for optimization, search, and artificial intelligence.
The workshop will be held in conjunction with the 25th Mexican International Conference on Artificial Intelligence, MICAI 2026, which will take place from November 2 to 6, 2026, at Tecnológico de Monterrey, Campus Chihuahua, Mexico. MICAI 2026 is organized by the Mexican Society for Artificial Intelligence and Tecnológico de Monterrey, Campus Chihuahua.
Scope and Motivation
Many real-world computational problems require the use of sophisticated algorithms whose performance depends strongly on the structure of the problem, the characteristics of the instance, and the operational context in which they are deployed. Traditionally, the design, selection, and configuration of these algorithms have relied heavily on expert knowledge, manual experimentation, and problem-specific tuning.
This workshop focuses on approaches that seek to automate these processes. Topics of interest include hyper-heuristics, automated heuristic design, automated algorithm selection, automated algorithm portfolios, automated algorithm configuration, neuroevolution, meta-learning, learning-based optimization, and related areas. The goal is to bring together researchers and practitioners interested in systems that can automatically design, select, configure, or adapt algorithms according to problem features, performance feedback, or changing environments.
The workshop aims to incentivize discussion across artificial intelligence, computational intelligence, operations research, evolutionary computation, machine learning, automated machine learning, and combinatorial optimization.
Topics of Interest
Submissions should address, but are not limited to, the following topics:
All submissions must be written in English and should present original work that has not been previously published and is not under review elsewhere. MICAI indicates that only complete and finished papers will be reviewed, not abstracts.
Proceedings
Accepted workshop papers will be included in the MICAI proceedings. According to the MICAI 2026 call, workshop proceedings will appear in the Springer LNAI series and are indexed in Scopus, SCImago, DBLP, INSPEC, and EI Compendex.
Organizers
Program Committee
Duration: 8 Hours
Artificial Intelligence is rapidly moving from experimental settings into industrial, business, governmental, educational, and organizational environments. This transition raises questions that go beyond model performance: how systems are framed, integrated, evaluated, monitored, governed, adopted, scaled, and sustained once they interact with heterogeneous data, operational constraints, human decision-makers, institutional rules, organizational cultures, risks, and public expectations.
This workshop aims to connect academic AI research with real-world implementation by bringing together researchers, industry leaders, practitioners, decision-makers, consultants, executives, graduate students, and innovation professionals to discuss applied AI systems, deployment challenges, successful case studies, governance strategies, and organizational adoption practices.
The workshop focuses on how Artificial Intelligence can be designed, evaluated, deployed, governed, and adopted responsibly in industrial, business, governmental, educational, and organizational environments. It gives particular attention to the gap between promising AI methods and the practical conditions required for reliable adoption, including data quality, system integration, uncertainty, risk management, human oversight, institutional accountability, organizational readiness, leadership alignment, capability development, and value realization.
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The workshop will be organized around an open Call for Papers for original research papers, applied case studies, position papers, industrial experience reports, conceptual frameworks, methodologies, and invited contributions from experts working at the intersection of AI research, industry implementation, governance, and organizational adoption.
The Call for Papers will invite submissions that address the design, evaluation, deployment, monitoring, governance, and adoption of AI systems in practical environments. Authors will be encouraged to submit original, unpublished work that presents empirical findings, technical frameworks, implementation lessons, organizational analyses, governance approaches, maturity assessments, value measurement techniques, transformation strategies, or case studies relevant to real-world AI adoption.
To ensure academic rigor and practical relevance, submissions will undergo peer review by a multidisciplinary program committee with expertise in applied AI, industrial systems, responsible AI, data science, governance, organizational transformation, change management, and enterprise implementation. Review criteria will include originality, methodological quality, clarity of contribution, relevance to real-world deployment, implications for responsible governance, and contribution to organizational AI adoption.
Organizers
Program Committee
CHARAL 2026 CHALLENGE
The Cognition First: The AI Augmented Learner Challenge Committee invites educators, researchers, faculty members, graduate and undergraduate students, innovators, entrepreneurs, and industry professionals to submit prototypes for presentation and evaluation during the challenge.
This challenge aims to promote the design, build, and deployment of AI-powered systems and technical prototypes that evaluate and elevate human cognitive processing. Instead of treating AI as a shortcut, these systems must interact with, audit, and/or evaluate the learner or researcher to ensure that critical thinking and deep reasoning are actively increasing. The initiative seeks to shift the educational paradigm from detecting AI use to demanding higher-order critical thinking when AI is used, enforcing rigorous engineering standards and foundational data governance.
Submissions may address the following areas (Tracks):
Accepted participants will be invited to present a working prototype, demonstrator, or proof of concept during the challenge showcase sessions.
Presentations should clearly communicate:
As a distinctive feature of this challenge, accepted prototypes will participate in a formal user interaction evaluation process where judges and evaluators will directly interact with the systems following a standardized protocol designed by Alexandr.ia AI Learning Systems.
Additionally, as a provisionally planned distinction (pending final logistical confirmation), top-performing prototypes or winners may receive access to a live sandbox environment hosted by Alexandr.ia AI Learning Systems to further test, validate, and scale their solutions.
The evaluation will focus on dimensions such as: originality and innovation, relevance and pedagogical impact, AI & ethical governance, prototype and technical maturity, quality of presentation and documentation.
Participants will receive a summary report containing aggregated evaluation results and recommendations for improvement, providing valuable evidence to support future development.
Authors must submit through the challenge portal, selecting the proper track, the following:
All submissions will undergo peer review based on the following criteria:
Accepted submissions will be included in the conference and scheduled for live demonstration.
All accepted prototypes are the responsibility of their authors and are subject to the limitations of space and exhibition conditions.
Outstanding prototypes will be recognized through the following distinctions:
Selected prototypes
For inquiries regarding prototype submissions, evaluation procedures, or participation requirements, please contact:
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