Brit Certifications and Assessments (BCAA) UK is a prominent, independent certification and
assessment body headquartered in London. With over 25 years of expertise, BCAA has established
itself as a global leader in providing high-quality training, auditing, and certification services across a
wide range of industries, with a specialized focus on Information Technology, Cybersecurity,
and AI Governance.
BCAA is officially accredited by GEPEA UK, ensuring that its programs adhere to rigorous
international quality and assessment benchmarks. The organization operates on a unique "Hub and
Spoke" model, delivering globally recognized credentials to professionals and enterprises worldwide
through a network of expert trainers and lead auditors.
 
 
At the heart of BCAA’s educational philosophy is the proprietary RACE learning methodology, designed to move beyond theoretical knowledge into practical mastery: Read: Comprehensive immersion in course materials and foundational concepts. Act: Practical application of expertise through real-world scenarios and hands-on exercises. Certify: Formal evaluation and examination to validate professional competence. Engage: Post-certification growth through webinars, mock audits, and community discussions.
 
 
BCAA provides a comprehensive suite of services aimed at enhancing operational excellence and
professional credibility:
-> ISO Management Systems: Auditing and certification for global standards including ISO
9001 (Quality), ISO 27001 (Information Security), and the pioneering ISO 42001
(Artificial Intelligence Management System).
-> Executive Certifications: Specialized leadership programs such as the Certified Chief AI
Officer (CCAIO), Chief Data Protection Officer (CDPO), and Chief Risk Officer
(CRO).
-> Implementation Toolkits: "Ready-to-use" frameworks and templates that help
organizations bridge the gap between regulatory requirements (like the EU AI Act or GDPR)
and daily operations.
By combining deep technical knowledge with a pragmatic, business-first approach, BCAA UK
empowers leaders to navigate the complexities of modern technology while ensuring safety,
compliance, and strategic value.
ISO/IEC 23894 is the international standard specifically dedicated to Artificial Intelligence —
Guidance on Risk Management.
While other standards (like ISO 31000) cover general risk, this document provides a tailored
framework for the unique, often unpredictable risks associated with AI, such as algorithmic bias, lack
of explainability, and data privacy.
 
 
The standard is designed to help organizations integrate AI risk management into their overall
governance and decision-making processes. Its primary goals include:
-> Balancing Innovation and Risk: Helping leaders weigh the benefits of AI against potential
negative impacts.
-> Ensuring Trustworthiness: Providing a roadmap to make AI systems more transparent,
reliable, and accountable.
-> Stakeholder Confidence: Demonstrating to regulators, customers, and partners that AI
risks are being proactively managed.
 
 
ISO 23894 follows the high-level structure of ISO 31000 (the "gold standard" for risk management) but adapts it for the AI lifecycle:
 
| Feature | Focus Area |
| Risk Assessment | Identifying AI-specific threats like "model drift," adversarial attacks, and training data poisoning. |
| Risk Treatment | Implementing technical controls (e.g., robust testing) and organizational controls (e.g., human-in-the-loop). |
| Continuous Monitoring | Because AI evolves, the standard emphasizes ongoing surveillance of model performance post-deployment. |
| Lifecycle Integration | Managing risk from the initial "design/data collection" phase through to "decommissioning." |
 
 
If you are working on your Certified Chief AI Officer handbook, it is helpful to view these two
standards as a duo:
-> ISO/IEC 42001: The "Management System" standard. It tells you what to have in place
(policies, roles, resources) to manage AI.
-> ISO/IEC 23894: The "Guidance" standard. It provides the how-to for the risk management
portion of that system.
Pro-Tip: ISO 42001 actually references ISO 23894 as a primary resource for performing the AI Risk
Assessments required for certification.
 
 
 
1.1 The Evolution of Risk Management: From Siloed to Strategic
1.2 Core Principles, Mandate, and Commitment in ISO 31000
1.3 Anatomy of the ISO 31000 Framework: Design, Implementation, & Improvement
1.4 The Risk Management Process: Scope, Context, & Criteria
1.5 Integrating Risk Architecture into Organizational Strategy
1.6 Case Study: Analyzing a Framework Implementation Failure
 
 
2.1 Scope, Objectives, and Rationale of ISO 23894
2.2 Relationship Between ISO 31000 and ISO 23894
2.3 Defining Artificial Intelligence: Technical, Ethical, and Operational Boundaries
2.4 The AI Lifecycle: From Conception to Decommissioning
2.5 Key Stakeholders in AI Risk Governance (Developers, Operators, Executives)
2.6 Executive Mandate: Establishing a Culture of Responsible AI
 
 
3.1 Defining the External Context: Regulatory Landscape (EU AI Act, etc.)
3.2 Defining the Internal Context: AI Maturity, Strategy, and Risk Appetite
3.3 Identifying AI Systems: Criticality, Autonomy Levels, and Data Dependency
3.4 Integrating AI Risk Criteria with Enterprise Risk Management (ERM)
3.5 Defining Risk Appetite and Tolerance for AI-Driven Decisions
3.6 Workshop: Drafting an AI Risk Management Charter
 
 
4.1 Technical Risks: Model Drift, Hallucinations, Brittleness, and Robustness
4.2 Data Risks: Poisoning, Bias, Privacy, and Intellectual Property Infringement
4.3 Operational Risks: Vendor Lock-in, System Failures, and Integration Complexity
4.4 Strategic & Reputational Risks: Brand Damage, Misalignment, and Market Disruption
4.5 Ethical & Human Rights Risks: Discrimination, Autonomy, and Explainability
4.6 Techniques: Structured What-If Technique (SWIFT) for AI Scenarios
 
 
5.1 Defining Risk Criteria for AI: Severity, Velocity, and Persistence
5.2 Qualitative Analysis: Scenario Planning and Expert Elicitation
5.3 Quantitative Analysis: Probabilistic Modeling for AI Failure Rates
5.4 Assessing Bias Metrics and Fairness Indicators
5.5 Analyzing Systemic Risk: Interconnected AI Ecosystems
5.6 Tools and Software for AI Risk Quantification
 
 
6.1 Comparing Risk Levels Against AI Risk Appetite
6.2 Prioritizing Risks: Critical, High, Medium, and Low AI Risks
6.3 The Concept of “Unacceptable Risk” in AI Systems
6.4 Cost-Benefit Analysis of Risk Treatments
6.5 Risk Reporting Structures for Board-Level Visibility
6.6 Executive Decision Gates: Go/No-Go for AI Deployment
 
 
7.1 Risk Treatment Options: Avoid, Modify, Share, or Retain
7.2 Preventative Controls: Robustness Testing, Red Teaming, and Security by Design
7.3 Corrective Controls: Human-in-the-Loop (HITL) and Kill Switches
7.4 Detective Controls: Continuous Monitoring, Alerts, and Model Performance Tracking
7.5 Supply Chain Risk Management: Vetting Third-Party AI Vendors
7.6 Developing a Risk Treatment Plan for High-Risk AI Systems
 
 
8.1 The Role of the Lead Risk Manager in the AI Lifecycle
8.2 Establishing an AI Governance Committee (Executive Level)
8.3 Defining RACI Matrices for AI Projects
8.4 The Role of the Data Protection Officer (DPO) and Chief Ethics Officer
8.5 Building a Competent AI Risk Team: Skills and Training
8.6 Delegation of Authority for AI Risk Acceptance
 
 
9.1 Key Risk Indicators (KRIs) for AI Systems
9.2 Key Performance Indicators (KPIs) for AI Risk Controls
9.3 Automated Monitoring: Model Drift Detection and Anomaly Detection
9.4 Conducting Internal Audits of AI Risk Processes
9.5 Post-Implementation Reviews (PIR) for AI Projects
9.6 Management Review: Inputs, Outputs, and Continuous Improvement
 
 
10.1 Principles of Effective AI Risk Communication
10.2 Internal Consultation: Bridging the Gap Between Technical and Business Teams
10.3 External Consultation: Engaging Regulators, Industry Groups, and Academia
10.4 Transparency Obligations: Explainable AI (XAI) and Disclosures
10.5 Incident Communication: Managing AI-Related Crises
10.6 Building Trust through Stakeholder Engagement Plans
 
 
11.1 AI Impact Assessments (AIA) – Methodology and Execution
11.2 Algorithmic Auditing: Technical and Socio-Technical Audits
11.3 Adversarial Testing and Red Teaming Strategies
11.4 Conformity Assessments for AI Systems
11.5 Using the ISO 23894 Annexes for Practical Implementation
11.6 Integration with DevSecOps and MLOps Pipelines
 
 
12.1 Mapping ISO 23894 to the EU AI Act: Obligations and Fines
12.2 Comparative Analysis: GDPR, CCPA, and Emerging AI Legislation
12.3 Sector-Specific Regulations (Finance, Healthcare, Critical Infrastructure)
12.4 Intellectual Property Risks in Generative AI
12.5 Liability Frameworks for AI-Caused Harm
12.6 Managing Cross-Border Data Transfers for AI Systems
 
 
13.1 Unique Vulnerabilities of AI: Adversarial Attacks and Prompt Injection
13.2 Securing the AI Supply Chain: Models Weights, APIs, and Data Pipelines
13.3 AI as a Cyber Defense Tool vs. AI as an Attack Vector
13.4 Business Continuity Management (BCM) for AI-Dependent Processes
13.5 Disaster Recovery Planning for Critical AI Systems
13.6 Integrating AI Risk with the ISO 27001 Framework
 
 
14.1 Fostering a Responsible AI Culture from the Boardroom to the Lab
14.2 Ethical Frameworks: Principles of Beneficence, Non-Maleficence, Autonomy, Justice
14.3 Human Oversight Strategies: Human-in-the-Loop vs. Human-on-the-Loop
14.4 Managing the Psychological Impact of Automation on Workforce
14.5 Whistleblowing Mechanisms for AI Misconduct
14.6 Case Study: Ethical Failures and Remediation
 
 
15.1 Defining Success Metrics for the AI Risk Program
15.2 Measuring the Maturity of AI Risk Management (Capability Maturity Models)
15.3 Return on Investment (ROI) of Risk Management Activities
15.4 Benchmarking Against Industry Peers and Best Practices
15.5 Reporting to the Board: Dashboards and Strategic Narratives
15.6 Lessons Learned: Post-Mortem Analysis of AI Incidents
 
 
16.1 Aligning AI Risk Management with Corporate Strategy and ESG Goals
16.2 Merging AI Risk with Enterprise Risk Management (ERM) Systems
16.3 Preparing for Emerging Risks: Quantum AI, AGI, and Neuro-Symbolic AI
16.4 The Role of the Lead Risk Manager in Innovation Facilitation
16.5 Developing a 3-Year Roadmap for AI Risk Capabilities
16.6 Capstone: Presenting a Comprehensive AI Risk Management Strategy to the Board
 
Duration: 4 days, 16 hours delivery
 
Exam: Open Objective and Subjective exam
 
Contact:
Brit Certifications and Assessments UK
BRIT CERTIFICATIONS AND ASSESSMENTS (UK),
128 City Road, London,
EC1V 2NX, United Kingdom
+44 0203 476 9079