Throughout the exam, you are expected to demonstrate your ability to make strategic decisions aligned with the role of an Agentic AI Product Manager, grounded in a solid understanding of agentic AI systems and their application in product management. You should assess each scenario with critical judgment, determining when and how AI agents create real value, while avoiding common pitfalls such as adopting agent-based architectures without clear need, misalignment with business strategy, or lack of early validation. Every decision should reflect a deliberate balance between technical feasibility, business impact, and the design of agent behaviors that deliver tangible and sustainable value to users.
120min timebox
80% passing score
2 attempts
English or Spanish
Certification Criteria
Candidates should demonstrate the following competences to be granted the Certified Agentic AI Product Manager (AAPM) certification:
1. Foundations
1.1. Understanding the differences between traditional and intelligent automation, and between AI assistants and agents
An Agentic AI Product Manager must clearly distinguish between traditional automation, intelligent automation, and the various types of AI-powered interactive systems, such as assistants and agents. This competency involves understanding not just the technological differences, but also the practical implications—what kinds of problems each can solve, how they are designed, their level of autonomy, and their impact on user experience and business operations. Mastering these distinctions allows for more informed decisions when designing products with intelligent components and ensures accurate communication of capabilities to both technical and non-technical stakeholders.
When applied effectively, this skill helps prioritize the right technological approach for each use case, optimizing time, resources, and stakeholder expectations. It prevents overengineering problems that could be solved with simple automation and, conversely, avoids underestimating the potential of autonomous agents with continuous reasoning. It also enhances alignment across design, development, and implementation by establishing a shared understanding of what the intelligent system should deliver and its limitations. This clarity leads to more robust, safe, and user-centric product designs.
Failing to grasp these distinctions can lead to misjudging the capabilities of a solution and making misleading promises, which damages customer trust and product credibility. It may also result in serious design flaws, such as using rigid automation for dynamic contexts or creating confusing user experiences by blending functionalities incoherently. In the emerging field of intelligent agents, lacking technical and conceptual judgment in this area can lead to products that don't scale, don't get adopted, or simply don't work as expected.
Common Errors
Assuming that any AI-based automation is intelligent without assessing its actual learning, adaptation, or reasoning capabilities.
Using “assistant” and “agent” interchangeably without recognizing differences in autonomy and proactivity.
Designing complex use cases with rigid automation that can't handle dynamic contexts or exceptions.
1.2. Having the ability to formulate a specific problem, identify signals that demonstrate its existence, and design a simple validation task before moving to solutions
An Agentic AI Product Manager must be able to clearly formulate specific problems before considering agentic or automated solutions. This competence involves turning vague intuitions or broad symptoms into a concrete and observable problem that matters to users and the business. Identifying clear signals that confirm the problem exists helps avoid assumptions and abstract debates. For an AAPM, this skill is critical because agentic systems can rapidly amplify poorly defined decisions.
When applied well, this competence helps the AAPM avoid building unnecessary or overengineered solutions. Designing simple, low-cost validation tasks enables fast learning, early alignment, and better prioritization. This approach saves resources and increases the likelihood that agentic solutions deliver real, measurable value. It also builds stakeholder trust by showing disciplined and structured thinking from the start.
When applied poorly, teams risk solving the wrong problem with sophisticated but irrelevant technology. Missing or weak signals often lead to endless discussions, late validation, or inconclusive experiments. In agentic contexts, these issues result in fragile automations, unpredictable outcomes, and reduced confidence in the product and the team.
Common Errors
Defining problems too broadly or vaguely: Abstract problem statements make validation difficult and lead to unfocused solutions.
Jumping straight to solutions: Proposing agents or complex flows without validation wastes time and effort.
Using heavy or slow validation tasks: Overly complex tests delay learning and hide early signals.
1.3. Identify when an agent is the correct answer and when it's not
An Agentic AI Product Manager (AAPM) must be able to judge when an autonomous agent-based solution truly adds value and when a simpler approach is more appropriate. This competence involves understanding the problem’s nature, its uncertainty, the need for continuous decision-making, and the required level of autonomy. Designing agentic solutions is not about technical sophistication, but about assessing whether the context justifies added complexity. Sound decisions balance business goals, user experience, and operational feasibility.
When applied well, this competence enables more adaptive and scalable solutions aligned with genuinely dynamic problems. Well-designed agents can reduce operational friction, improve response times, and free teams from repetitive or highly variable tasks. Clear judgment also prevents overengineering, simplifies maintenance, and builds stakeholder trust by demonstrating responsible technical decision-making. In contrast, poor application often leads to opaque and costly systems.
Failing to recognize when not to use agents introduces significant risks, such as unnecessary complexity or unpredictable system behavior. These outcomes can harm user experience, increase operational costs, and delay value delivery. Over time, they may also undermine the AAPM’s credibility if technology choices appear unjustified or misaligned with business priorities.
Common Errors
Assuming agents are always the best answer: Choosing agentic approaches without validating the need for autonomy adds avoidable complexity.
Overlooking control and maintenance costs: Ignoring supervision and tuning efforts threatens long-term sustainability.
Designing without clear decision criteria: Lacking principles for when to automate leads to inconsistent solutions.
1.4. Determine whether a problem requires intelligent automation or an AI agent, and to validate that decision with users before building
An Agentic AI Product Manager (AAPM) must thoughtfully assess whether a problem truly requires intelligent automation or the creation of an AI agent, rather than defaulting to advanced technology for its own sake. This competency involves understanding the problem’s structure, frequency, variability, and the level of autonomy needed to solve it effectively. It also requires early validation of the chosen approach with real users to ensure it genuinely addresses their needs. This upfront judgment is critical to justify the complexity and risks introduced by AI agents.
When applied well, this capability leads to simpler, more reliable solutions that users readily adopt, while optimizing development time and cost. The AAPM aligns business goals, technical choices, and user expectations, reducing costly rework and reversals. It also results in better user experiences by delivering the right level of automation or autonomy, strengthening trust in agent-based products. The positive impact is seen in faster delivery, efficient resource use, and more sustainable AI solutions.
If applied poorly, this competency can result in unnecessary AI agents that are hard to maintain and difficult for users to trust. Building automation on poorly understood problems or without user validation often leads to low adoption and operational risk. Over time, this erodes the AAPM’s credibility and creates organizational fatigue around AI initiatives. Ultimately, it translates into wasted investment and missed opportunities.
Common Errors
Assuming complex problems always require an AI agent instead of simpler automation.
Relying on internal assumptions rather than validating decisions with real users.
Underestimating the long-term cost and risk of maintaining autonomous agents.
1.5. Document the problem, solution hypothesis, and validation criteria in a lightweight PRD that enables building, measuring, and evolving the agent iteratively
An Agentic AI Product Manager (AAPM) must be able to clearly document the problem, the solution hypothesis, and validation criteria in a lightweight PRD that serves as a practical guide for cross-functional teams. This competency involves distilling what truly matters, focusing on purpose, expected outcomes, and how success will be measured. In the context of AI agents, whose behavior evolves over time, the PRD is not static but a living artifact that guides decisions. Doing this well is critical to reduce ambiguity and align teams from the start.
When applied effectively, this skill accelerates agent development by providing a clear framework for experimentation, measurement, and learning. The AAPM ensures engineering, design, and business share a common understanding of the problem and success criteria, improving iteration quality. It also enables evidence-based decisions by continuously testing hypotheses against clear metrics and adjusting the agent progressively. The positive impact includes more adaptable products, stronger adoption, and efficient use of resources.
When this competency is applied poorly, agents are often built on unclear assumptions or without objective ways to evaluate success. PRDs that are either too vague or overly rigid hinder learning and create friction between teams. This leads to erratic iterations, difficulty proving real value, and loss of trust in the product. Over time, weak documentation limits the ability to scale and sustainably improve the agent.
Common Errors
Defining goals without clear criteria to evaluate agent success.
Writing PRDs that are too long and not used as a real working reference.
Failing to update the PRD as new insights emerge from the agent’s behavior.
2. Context Management
2.1. Designing memory and knowledge-access strategies for AI agents
An Agentic AI Product Manager must define how an agent “remembers” and how it accesses knowledge to achieve real goals consistently. This competency involves deciding when immediate context is enough and when persistent memory is required to sustain continuity, personalization, or traceability across sessions. It also requires specifying what information should be retrieved (domain facts, internal policies, user history, task state) and what format best supports the agent’s reasoning. In addition, it includes the judgment to use RAG as a bridge between the model and trusted sources, reducing outdated or fabricated answers. It is critical because the quality of “memory” directly shapes product usefulness, safety, and trust.
When done well, the agent delivers more accurate, coherent, and policy-aligned outcomes, improving user experience and adoption. Teams move faster by reducing rework and support, because the agent knows what to look up, where to find it, and how to prioritize it instead of improvising. A strong memory strategy also enables measurement and continuous improvement by making clear what is stored, why, and how it is used. When done poorly, agents become inconsistent, forget prior decisions, or retrieve irrelevant information, increasing cost and user frustration. Worse, they may store unnecessary or poorly governed data, creating privacy, compliance, and reputational risks.
Common Errors
Storing everything “just in case,” creating noisy memory that hurts accuracy and increases data risk.
Retrieving content without relevance or freshness criteria, leading to long, confusing, or outdated answers.
Relying on the LLM alone without RAG or verifiable sources, increasing hallucinations and wrong decisions.
2.2. Defining knowledge architectures for agentic AI products
An Agentic AI Product Manager must define knowledge architectures that allow agents to access the right information at the right time with the appropriate level of persistence. This competency involves identifying which information is critical to achieve goals, evaluating the quality and reliability of available sources, and making informed decisions about memory and retrieval. It goes beyond technology, requiring product judgment to turn scattered data into actionable knowledge. It is critical because a poorly defined architecture limits an agent’s ability to reason, learn, and act consistently.
When done well, the product delivers more useful, accurate, and business-aligned agents, capable of handling complex conversations and tasks without losing coherence. The positive impact shows up in higher user trust, lower operational friction, and better scalability, since memory and access decisions are intentional from the start. Teams also gain clarity on what information to retain, update, or discard, reducing cost and risk. When done poorly, agents improvise, rely on wrong assumptions, or retrieve irrelevant information. This leads to inconsistent experiences, costly errors, and potential security or compliance issues.
Common Errors
Designing the architecture without grounding it in the agent’s real tasks and decisions.
Using information sources without assessing reliability, freshness, or governance.
Blending memory and retrieval without a clear rationale, creating systems that are hard to maintain or explain.
2.3. Integrating agents with external tools and services
An Agentic AI Product Manager must integrate agents with external tools and services to turn conversations into verifiable, useful actions. This competency includes understanding how agents connect to real-world capabilities through connection protocols like MCP, and judging when it adds value versus simpler or more purpose-built integrations. It also requires designing how the agent, tools (APIs, databases, internal systems), and business rules interact, ensuring each call has clear intent, boundaries, and traceability. It is critical because the difference between a “smart chat” and a trustworthy agentic product often lies in the quality of these integrations.
When done well, the agent completes end-to-end tasks with higher accuracy, fewer manual steps, and better turnaround times, boosting adoption and retention. The business benefits from controlled automation, auditable actions, and fewer operational mistakes, while the team moves faster by reusing connectors and standardizing integration patterns. Strong orchestration also improves security and resilience by defining permissions, validations, and failure handling. When done poorly, the agent becomes brittle: flows break due to poorly defined dependencies, actions are executed incorrectly, or the agent stalls on unexpected service responses. It can also introduce security and compliance risks when tools are connected without clear access controls, logging, and limits.
Common Errors
Connecting tools without defining permissions, validations, and action boundaries for the agent.
Adopting MCP “because it’s a standard” without proving it’s needed over simpler options.
Orchestrating tool calls without failure handling, causing loops, inconsistent state, or poor UX.
2.4. Build and validate functional AI agent prototypes
An Agentic AI Product Manager must be able to translate design decisions into functional AI agent prototypes that reflect real behavior rather than abstract concepts. This competence involves implementing concrete flows, integrating models, tools, and decision rules, and testing them against realistic use cases. Its importance lies in reducing the gap between product intent and actual performance, allowing early detection of technical constraints, user experience risks, and flawed assumptions. Without this skill, agent design remains disconnected from operational reality.
When applied well, this competence accelerates team learning and significantly improves product decision-making. Functional prototypes enable hypothesis validation with evidence, behavioral adjustments before scaling, and stakeholder alignment around observable outcomes. Systematically documenting learnings from each iteration strengthens organizational memory and prevents repeated mistakes. Poor execution, by contrast, leads to slow iteration cycles, opinion-driven decisions, and agents that fail under real-world conditions.
Common Errors
Building overly abstract prototypes: Relying only on diagrams or descriptions prevents early discovery of critical issues.
Testing unrealistic scenarios: Validating agents only in ideal conditions creates a false sense of robustness.
Failing to document learnings: Moving between iterations without capturing insights results in lost knowledge and repeated errors.
3. Orchestration
3.1. Design systems where multiple agents collaborate
An Agentic AI Product Manager must be skilled at designing systems where multiple AI agents collaborate effectively to solve complex problems. This competence involves assessing when a single agent is no longer sufficient, deciding whether the problem truly warrants multiple agents, and defining clear roles and responsibilities. It also requires choosing orchestration patterns—such as centralized control, sequential collaboration, or autonomous interaction—aligned with the problem’s goals. This skill is critical because poor architectural choices can increase complexity without delivering additional value.
When executed well, this competence enables more robust, scalable, and adaptable solutions. Well-designed agent collaboration improves task specialization, reduces bottlenecks, and supports system evolution as requirements grow. Clear orchestration also enhances observability, control, and trust among technical and business stakeholders. When applied poorly, however, it results in fragile systems that are hard to debug and expensive to maintain.
Failing to apply this competence with judgment often leads to over-engineered architectures, agents that duplicate work or conflict with each other, and unpredictable outcomes. Unclear roles and interaction rules can degrade user experience and undermine product credibility. For this reason, the skill is essential to balancing technical ambition with operational simplicity and real value.
Common Errors
Scaling to multiple agents unnecessarily: Introducing several agents when a single well-designed flow would suffice adds complexity without clear benefits.
Defining ambiguous roles: Poorly defined responsibilities cause overlap, conflict, and inconsistent behavior.
Choosing unsuitable orchestration patterns: Applying coordination models without considering the specific problem leads to inefficiency and fragility.
3.2. Evaluate and justify scalability decisions in agentic systems
An Agentic AI Product Manager must be able to assess whether a system truly requires scaling from a single agent to a multi-agent architecture. This competence involves analyzing problem complexity, task interdependencies, and limits related to performance, coordination, and control. Its importance lies in preventing architecture decisions driven by technical excitement rather than real necessity. Clear justification helps keep the product grounded and focused from early stages.
When applied well, this competence leads to scalable, understandable, and sustainable systems. Defining clear roles and appropriate orchestration patterns improves efficiency, traceability, and long-term evolution. Strong justification also supports alignment with engineering teams and business stakeholders. When applied poorly, it results in over-engineered solutions, higher maintenance costs, and unpredictable behavior that undermines product trust.
Common Errors
Assuming more agents always mean more power: Scaling without need increases complexity without solving core issues.
Failing to justify architectural choices: Decisions without explicit criteria hinder alignment and later evaluation.
Superficially defining roles and orchestration: Lack of clarity causes inefficiency and coordination failures.
4. Evaluations (Evals)
4.1. Systematically measure AI agent behavior
An Agentic AI Product Manager must be able to systematically define and measure what it means for an AI agent to “work well.” This competence involves translating abstract expectations—such as usefulness, reliability, or alignment—into observable and evaluable criteria. It requires designing metrics, test scenarios, and datasets that reflect real usage conditions. This skill is critical because, without clear measurement, agent behavior becomes subjective and decisions lack grounding.
When applied well, this competence enables evidence-based iteration and continuous performance improvement. Well-defined criteria help detect regressions, compare versions, and prioritize improvements with real impact on users and the business. Strong test datasets also align teams around a shared definition of quality. When applied poorly, measurement gaps lead to erratic progress, opinion-driven debates, and agents that silently fail in production.
Failing to apply this competence rigorously exposes the product to significant risks, including unexpected behaviors, gradual performance degradation, and loss of stakeholder trust. Without clear criteria, teams cannot learn effectively from mistakes or scale the system with confidence. For this reason, systematic measurement is essential to making agent development a controlled and repeatable process.
Common Errors
Defining success vaguely: Failing to specify what “working well” means prevents meaningful evaluation.
Using unrepresentative datasets: Testing only simple or ideal cases leads to misleading conclusions.
Not comparing results across iterations: Iterating without consistent metrics limits learning and improvement.
4.2. Establish evaluation frameworks for agentic AI products
An Agentic AI Product Manager must be able to establish evaluation frameworks that consistently measure the performance of agentic AI products. This competence involves designing measurement systems that link agent behavior to product goals, user experience, and business outcomes. Its purpose is to turn scattered signals into actionable evidence for decision-making. Without such frameworks, product development relies too heavily on intuition and subjective judgment.
When applied well, this competence enables clearer, more comparable, and defensible product decisions. Strong evaluation frameworks help prioritize improvements, detect regressions, and assess trade-offs with greater objectivity. They also align technical and business teams around shared success criteria, reducing friction and unproductive debate. Poor execution, however, leads to metrics disconnected from real value, weak learning across iterations, and slower product evolution.
Lacking solid frameworks exposes products to risks such as optimizing irrelevant behaviors, scaling unstable solutions, or losing stakeholder confidence. Without a clear evaluation foundation, even technically advanced agents may fail to deliver consistent value. For this reason, this competence is essential to professionalizing agentic AI product development and sustaining growth over time.
Common Errors
Measuring without a clear objective: Defining metrics unrelated to product decisions creates noise and confusion.
Relying on isolated signals: Evaluating performance with disconnected indicators prevents understanding the system as a whole.
Failing to evolve the framework: Keeping outdated criteria limits learning and continuous improvement.
5. Operations
5.1. Design operational controls for agents in production
An Agentic AI Product Manager must design operational controls that allow AI agents to operate safely, predictably, and sustainably in production. This competence involves defining clear behavioral boundaries, implementing safety mechanisms, and anticipating operational impacts such as cost, latency, and resource usage. Its importance is critical because autonomous agents can quickly amplify failures if proper controls are not in place. Designing these mechanisms is essential to protecting users, the business, and product reputation.
When applied well, this competence enables agents to scale with confidence and responsibility. Well-designed controls reduce operational risk, support early detection of anomalies, and ensure agents remain aligned with defined goals and constraints. Thoughtful cost management also prevents financial surprises and supports long-term system sustainability. Poor execution, by contrast, can lead to unwanted behaviors, uncontrolled costs, and loss of stakeholder and user trust.
Failing to apply this competence rigorously exposes the product to production incidents that are hard to reverse. Without clear limits and safety mechanisms, agents become fragile systems that are difficult to govern. For this reason, designing operational controls is not just a technical concern, but a core product responsibility focused on delivering continuous and responsible value.
Common Errors
Defining unclear or missing limits: Allowing unrestricted behavior increases operational risk.
Treating safety as an afterthought: Adding controls only after deployment leaves the system exposed.
Ignoring cost impact: Failing to monitor and manage resource usage leads to unsustainable solutions.
5.2. Prepare AI agents to operate in production environments
An Agentic AI Product Manager must prepare AI agents to operate reliably in production environments, where mistakes have real impact. This competence involves anticipating technical, operational, and usage risks, as well as defining governance policies that guide agent behavior within clear boundaries. It also requires establishing controls that allow gradual scaling without losing visibility or control. This skill is critical because moving to production turns experiments into systems that directly affect users and the business.
When applied well, this competence enables safer and more predictable agent deployments. Anticipating risks reduces incidents, while well-defined governance policies support consistent and responsible decision-making over time. Proper controls allow growth without compromising stability or stakeholder trust. Poor preparation, by contrast, exposes the product to serious failures, reactive responses, and adoption barriers that slow down scaling.
Failing to develop this competence rigorously leads to agents that are difficult to govern and organizations that constantly react to incidents. The absence of clear policies and effective controls increases the likelihood of unintended behavior and credibility loss. For this reason, preparing agents for production is a core capability for turning promising prototypes into sustainable and trustworthy products.
Common Errors
Underestimating production risks: Treating deployment as a simple extension of a prototype leaves the system exposed.
Defining governance ambiguously: Unclear policies lead to inconsistent decisions and conflict.
Scaling without progressive controls: Growing without supervision mechanisms increases system fragility.