Day 1 · AI Leadership
Autonomous-agent foundations, research validation, token economics, network constraints, responsible evaluation and agentic data architecture.
PRIMARY-SOURCE RESEARCH MAP · VERSION 1 · 1 OCTOBER 2026
AI & Big Data Expo Europe supplies the technical lens for The 100: not whether AI can produce an answer, but how a real system earns permission to act, survives failure, shows its evidence and proves its value.
The verified programme repeatedly returns to one engineering problem: the model is no longer the hardest part. The frontier is the surrounding system—data, identity, authority, memory, orchestration, evaluation, infrastructure, governance, human review and value measurement.
Autonomous-agent foundations, research validation, token economics, network constraints, responsible evaluation and agentic data architecture.
Data products, operating models, coding agents for high-risk pipelines, master data and governed software-production skills.
Converging platforms, full-traffic observability claims, delegated authority and build/buy/combine strategy.
Production durability, agent identity through MCP, build-versus-buy, lock-in, IP ownership and attributable ROI.
Legal-risk-engineering alignment, monitoring and audit trails, agentic operating models and skepticism about benchmarks.
AI coding, identity-aware memory, context engineering, RAG, orchestration, evaluation, MCP and self-hosted small models.
Interpretation: this synthesis is RN’s inference from the official agenda. It is not an official characterization by the event.
RANKED TECHNICAL FRONTIER MAP
Verified programme evidence: AI Builders introduces the 5 A’s: Authority, Access, Approval, Accountability and Adaptation. Data & Analytics adds identity-provider controls for MCP-connected agents.
Why it matters: An agent is not “safe” because its prompt says to behave. Its permissions, approvals, owner, stop control and audit trail must exist in the system.
Ask of every RN build: For every action: what may the agent decide, which tool or record may it touch, who approves, who is responsible, and how is access revoked?
Verified programme evidence: Ford Credit’s developer session frames production AI as distributed software: orchestration, context engineering, evaluation, memory, observability and governance.
Why it matters: A model call is one component. Reliability depends on everything before it, around it and after it.
Ask of every RN build: Draw the request path from user input through validation, retrieval, model, tools, storage, review and final output. Name every boundary.
Verified programme evidence: The AI Developer programme includes an identity-aware memory layer using entity resolution for a Fortune 500 insurer.
Why it matters: Saving conversation text is not enough. The system must distinguish people, organizations, records, sessions and permissions without merging the wrong entities.
Ask of every RN build: What is remembered, under which identity, for how long, in which store, with what retrieval rule, and how can it be corrected or deleted?
Verified programme evidence: BBC addresses responsible evaluation at scale; Future AI specifies monitoring, logging and audit trails; Splunk claims evaluation of all agent traffic with real-time blocking.
Why it matters: A one-time demo cannot prove a system is dependable. Tests must measure quality, safety, task success, regressions, latency and cost over time.
Ask of every RN build: State the test set, metric, threshold, failure response, reviewer, sampling rate and evidence retained for each important behavior.
Verified programme evidence: IBM links real-time access, security, governance, trust, silos and lineage to agentic scale. Shell, Volvo, Eneco and IBM discuss data products and product ownership.
Why it matters: Agents cannot repair undocumented, inaccessible or contradictory data by sounding confident.
Ask of every RN build: Name each source, owner, schema, refresh cycle, transformation, quality check, lineage record and rule for resolving conflicts.
Verified programme evidence: GLS reports a multi-country customer-service system built with self-hosted open-source small language models, with guardrails, scale, accuracy, regulation and predictable cost as explicit concerns.
Why it matters: “Which model is best?” is the wrong first question. Control, data location, latency, skill coverage, maintenance and total cost determine the right deployment.
Ask of every RN build: Explain why this model and hosting mode were chosen; compare privacy, control, quality, latency, lock-in, maintenance and per-task cost against alternatives.
Verified programme evidence: AI Leadership covers finance-grade ROI, token economics, latency, jitter, cross-cloud data movement, network sovereignty and the cost of agentic data architecture.
Why it matters: An architecture that works only when cost and latency are ignored is not production-ready.
Ask of every RN build: Provide token, compute, storage, network and human-review costs per task; include latency targets, limits, caching, retries and graceful degradation.
Verified programme evidence: Data & Analytics explicitly weighs vendor lock-in, IP ownership and long-term costs; AI Builders warns against vendor sprawl, over-engineering and technical debt.
Why it matters: A fast vendor integration may become an expensive dependency. A custom system may create maintenance work the team cannot sustain.
Ask of every RN build: List what is owned, rented and replaceable; document export paths, switching costs, proprietary dependencies and the smallest viable internal capability.
Verified programme evidence: Datadog describes coding agents for data pipelines where bad code may run successfully and poison downstream data. In The Pocket describes 400 governed production skills across its software lifecycle.
Why it matters: Faster generation increases the volume that needs verification. Quality systems must scale with output speed.
Ask of every RN build: Show generated versus human-authored work, automated checks, reviewer responsibility, release gates, rollback and how silent data errors are detected.
Verified programme evidence: Future AI challenges benchmark overfitting and the human tendency to project intention onto fluent systems; its risk-stack panel asks for classification, controls, monitoring and auditability.
Why it matters: Friendly language and impressive benchmarks are not evidence that a system understands, is correct or should be trusted.
Ask of every RN build: Separate observed performance from marketing claims and inference. Show limitations, uncertainty, known failure modes and the evidence a user can inspect.
Verified programme evidence: The official programme includes a dedicated Physical AI track and co-located edge, IoT and intelligent-automation tracks covering robotics, autonomous systems and industrial operations.
Why it matters: When software senses or changes the physical world, timing, safety, device failure and human override become part of the architecture.
Ask of every RN build: For any physical input or action, specify sensor, sampling, edge/cloud split, control loop, safe state, override, environmental limits and recovery.
Verified programme evidence: Leadership and Data & Analytics sessions question activity metrics, reported productivity gains and AI budgets whose costs are visible but value is not.
Why it matters: Usage, outputs and speed do not prove that a build helped. A causal story and an accountable measurement plan are required.
Ask of every RN build: Define the baseline, intended outcome, owner, counterfactual, measurement window, confounders and rule for stopping or redesigning the system.
THE RN BUILD EXPLANATION CONTRACT
Every case study must contain all twenty records below. “Connect the API,” “add a database,” “use an agent” and “apply safeguards” fail this standard. The explanation must identify the exact component, input, output, decision rule, failure behavior and visible proof that it worked.
| Record | Plain question | Minimum proof |
|---|---|---|
| 1. Provocation | What happened that made this worth building? | Name the person or institution affected, the existing failure and the evidence that it is real. |
| 2. Promise | What can the finished system actually do? | Use testable verbs. Separate live capability, prototype, simulation and planned work. |
| 3. Boundary | What does it deliberately not do? | State non-goals, prohibited uses, unsupported users, jurisdictions and decisions reserved for people. |
| 4. Journey | What does a person do from start to finish? | Number every screen, choice, input, wait, correction, output and next step. |
| 5. System map | Which parts talk to which other parts? | Name the browser, server, model, agent, database, queue, API, file store and third-party service; label every connection. |
| 6. Data contract | What enters, changes, persists and leaves? | For every field give its type, source, validation, transformation, destination, retention and deletion rule. |
| 7. Intelligence split | Which work is deterministic and which uses AI? | For each step name rule, search, model or human judgment; explain why uncertainty is acceptable there. |
| 8. Agent contract | What may each agent perceive, decide and change? | List tools, credentials, scopes, approvals, budget, stop condition, escalation route and accountable human. |
| 9. Context and memory | How does the system know what matters now and later? | Document retrieval query, context assembly, identity resolution, memory write/read/delete rules and contamination defenses. |
| 10. Model decision | Why this model, size and host? | Compare quality, privacy, latency, control, availability, regulation, lock-in and total cost. |
| 11. Failure tree | How can it fail, and what happens next? | Cover bad input, missing data, timeouts, rate limits, model error, tool error, stale state, unauthorized action and partial completion. |
| 12. Assurance | How do we know it works and remains safe? | Name test cases, metrics, thresholds, adversarial tests, monitoring, alerts, audit logs and regression cadence. |
| 13. Security and rights | Who may access, copy, change or remove what? | Explain authentication, authorization, secrets, encryption, provenance, license, privacy, consent and incident response. |
| 14. Operations | What does production require every day? | Include deploy, environments, configuration, observability, support, backups, rollback, capacity, latency and cost ceilings. |
| 15. Reproduction | Could a determined twelve-year-old rebuild the logic? | List prerequisites and exact steps in order. Define every term at first use and include a visible pass/fail check after each step. |
| 16. Design rationale | Why is the experience shaped this way? | Connect information order, interface, typography, imagery, friction and feedback to a human need—not aesthetic preference alone. |
| 17. Decision history | What was tried, rejected and changed? | Show hypothesis, experiment, failure evidence, correction and the commit or artifact proving the change. |
| 18. Evidence ledger | Which statements are facts, claims or inference? | Attach a source, date and scope to facts; label vendor claims and RN interpretations; never blend them. |
| 19. Value test | What outcome would justify keeping it? | Define baseline, target, measurement period, cost, owner and the evidence that would trigger shutdown or revision. |
| 20. Exhibition label | What must a cold reader know in thirty seconds? | Build number, purpose, status, stack, date, author, live link, repository, sources, rights, limitations and next experiment. |
Directly supported by code, logs, tests, a deployed interface, an official source or a preserved artifact. Attach source, date and scope.
A speaker, vendor or institution says it. Name the claimant and do not silently convert the statement into independent fact.
A reasoned interpretation connecting evidence. Show the evidence chain and state what could disprove it.
Evidence is absent, incomplete or not yet inspected. Record the gap and the exact action needed to resolve it.
The programme promotes agents that plan and act while also demanding narrow authority, approvals, traceability and human accountability. Ask where autonomy actually begins and ends.
Vendors promise weeks-to-deployment while speakers warn that rushed architectures create cleanup, drift, technical debt and unsafe access. Ask what was omitted to achieve speed.
Coding agents lower barriers, but generated pipelines can quietly corrupt downstream data. Ask whether review capacity grew as quickly as generation.
Self-hosting can improve sovereignty and predictability while transferring security, upgrades, evaluation and operations to the adopter. Ask for total—not token-only—cost.
A model can score well, speak fluently and still fail a specific workflow. Ask for task-level evaluation with real users, failures and counterfactuals.
Activity and productivity estimates are easy to report. Attribution, avoided harm and durable outcome improvement are harder. Ask what evidence finance would accept.
HONEST COVERAGE BOUNDARY
All event facts on this page were checked against the organizer’s current public pages on 1 October 2026. Agenda details may change before the event.
Official dates, venue, scale, co-located events, headliners and Agentic AI Pavilion.
Autonomous-agent architecture, evaluation, token economics, network infrastructure and agentic data architecture.
Data products, delivery operating models, coding agents, master data and scalable software-production systems.
Converging platforms, observability, cost-efficient deployment, authority and platform selection.
Production durability, agent identity, build-versus-buy and provable value.
Cross-functional governance, risk stacks, enterprise agents and benchmark skepticism.
Development workflows, identity-aware memory, orchestration, context, MCP, RAG and self-hosted models.
Official speaker and organization roster.
Current exhibitor descriptions, stands and claimed capabilities.
19–20 October 2026, RAI Amsterdam, public hours and access information.