What Counts as an AI Incident and Who Decides
Defining AI Incidents in Practice
AI incidents represent failures or unexpected behaviours in artificial intelligence systems that can cause harm or significant disruption. These incidents differ from traditional software failures because they often involve complex decision-making processes that may not be immediately apparent to users or operators. In practice, an AI incident might occur when a machine learning model produces incorrect classifications, when automated systems make biased decisions, or when AI components fail to respond appropriately to changing conditions.
Consider a healthcare organisation using an AI system to assist with diagnostic decisions. If the system consistently misclassifies certain medical conditions or provides recommendations that differ significantly from clinical expertise, this constitutes an AI incident. The incident might not be immediately obvious to clinical staff who rely on the system’s output.
Similarly, a financial services company deploying AI for credit scoring might discover that their algorithm systematically disadvantages applicants from certain demographic groups, creating an incident that affects both individuals and organisational reputation.
Organisations must develop clear definitions of what constitutes an AI incident within their specific operational context. The definition should account for various factors including severity of impact, frequency of occurrence, and potential for harm. An incident might involve data corruption, model drift, or unexpected outputs that deviate from established expectations.
The key is establishing criteria that allow practitioners to identify when AI systems have failed to perform as intended or have created unintended consequences.

Criteria for Incident Classification
Effective incident classification requires establishing specific criteria that help practitioners determine when AI systems have failed. These criteria should focus on measurable outcomes rather than subjective interpretations. The primary factors include impact on users, operational disruption, financial consequences, and regulatory implications.
- Impact on Users: Direct harm to individuals or groups who interact with AI systems. This might include incorrect medical diagnoses, unfair treatment in automated processes, or loss of access to services due to system failures.
- Operational Disruption: When AI systems stop functioning properly or produce outputs that prevent normal business operations. Examples include automated customer service systems becoming unresponsive or recommendation engines failing to provide relevant suggestions.
- Financial Consequences: Direct monetary losses or increased costs resulting from AI failures. This might involve regulatory fines, compensation claims, or expenses related to system repairs or replacements.
- Regulatory Implications: Incidents that may violate existing laws or regulations governing AI usage. This includes breaches of data protection requirements, discrimination laws, or industry-specific compliance obligations.
Practical examples illustrate these classifications clearly. A retail company using AI for inventory management might experience an incident when their system consistently overstocks certain products while understocking others, leading to increased storage costs and potential waste. The incident involves operational disruption and financial consequences but may not directly harm individuals.
In contrast, an AI-powered recruitment tool that consistently rejects qualified candidates from specific backgrounds would represent a more serious incident due to its impact on users and potential regulatory implications.
Decision-Making Authority and Responsibility
Determining who makes decisions about AI incidents requires clear organisational structures and defined roles. The decision-making process should identify who has authority to classify incidents, who coordinates responses, and who communicates outcomes to relevant stakeholders. This framework must accommodate various organisational structures while ensuring accountability and appropriate response times.
In many organisations, incident classification involves multiple parties including data scientists, system administrators, compliance officers, and senior management. The data science team typically identifies technical issues, while compliance officers assess regulatory implications. Senior management makes final decisions about incident classification and response strategies.
The challenge lies in establishing clear communication channels that allow these groups to collaborate effectively while maintaining appropriate decision-making authority.
Organisations should establish decision trees or flowcharts that guide practitioners through incident classification processes. These tools help ensure consistency across different situations and reduce the likelihood of important incidents being overlooked. The decision-making framework must also account for situations where incidents may not be immediately obvious or where multiple issues occur simultaneously.
Effective incident response requires that decision-makers understand not only technical aspects but also organisational implications. A data scientist might identify a model drift issue, but the decision about whether this constitutes an incident depends on factors such as the severity of impact, regulatory requirements, and organisational risk tolerance.
The framework should support these complex decisions through clear guidelines and established escalation procedures.
Organisations must also consider who has access to incident data and how information flows through the organisation. Clear protocols ensure that relevant parties receive appropriate information while protecting sensitive data. The decision-making process should accommodate both immediate response needs and longer-term improvement efforts that address root causes of AI failures.
