IAPP AIGP, study guide domain iv
- Ley Muller
- 7 days ago
- 17 min read
Domain iv: how to govern AI deployment & use
Domain IV.a Deployment decisions- factors and risks
1. Apply the policies, procedures, best practices and ethical considerations to the deployment of an AI model (e.g., data governance, risk management, issue management, user training).
Integration = estabish seamless interaction between the AI system and any other components of the system architecture, like data pipelines for necessary input data, or APIs to allow other systems to query the model and utilize outputs
Configuration = adjust operational environmentto meet AI model needs
Sufficient resource allocation (CPU, GPU, memory)
Security (access controls, encryption, to protect the model and its data)
“Activation” of the AI model in the operational setting - pilot testing or phased deployment
2. Conduct continuous monitoring of the AI model and establish a regular schedule for maintenance, updates and retraining.
3. Conduct periodic activities to assess the AI model’s performance, reliability and safety (e.g., audits, red teaming, threat modeling and security testing).
Continuous performance tracking
Proactively identify
Concept drift = changes in the underlying data distribution that degrade model performance or inference
Data drift = changes in the input data characteristics that the model wasn’t trained on → model’s predictive capabilities get worse
Could be due to new data sources, new data collection methods, or actual population changes
Emerging biases = new unfair or discriminatory behavior
4. Document incidents, issues, risks and post-market monitoring plans.
5. Forecast and reduce risks of secondary or unintended uses and downstream harms.
6. Establish external communication plans.
7. Create and implement a policy and controls to deactivate or localize an AI model as necessary (e.g., due to regulatory requirements or performance issues).
Understanding the Context of AI Use Cases
Business Objectives:
Define clear, measurable goals for AI deployment (e.g., cost reduction, revenue generation, efficiency improvement)
Align AI initiatives with organizational strategy
Establish success metrics and KPIs
Consider ROI and resource allocation
Performance Requirements:
Accuracy thresholds needed for the use case
Latency and response time requirements
Scalability needs
Integration requirements with existing systems
Data Availability:
Volume and quality of training data
Data labeling and annotation requirements
Data refresh rates and maintenance needs
Access to real-time vs. historical data
Data privacy and security considerations
Ethical Considerations:
Fairness and bias concerns
Transparency and explainability requirements
Impact on stakeholders and affected populations
Potential for discrimination or harm
Alignment with organizational values
Workforce Readiness:
Technical skills and expertise available
Training and upskilling needs
Change management requirements
User acceptance and adoption considerations
Impact on job roles and responsibilities
Classic vs. Generative AI:
Classic AI (Discriminative Models):
Designed for specific tasks like classification, regression, or prediction
Examples: fraud detection, spam filtering, recommendation systems
More predictable and interpretable
Typically requires less computational resources
Well-understood risk profiles
Generative AI:
Creates new content (text, images, code, audio)
Examples: ChatGPT, DALL-E, Copilot
Higher potential for unexpected outputs
Greater creativity but less predictability
Increased risks around misinformation, copyright, and bias
Proprietary vs. Open Source:
Proprietary Models:
Vendor-controlled and supported
Typically includes SLAs and guarantees
Limited transparency into model architecture
Ongoing licensing costs
Vendor dependency and lock-in risks
May offer better performance and support
Open Source Models:
Transparent and inspectable
Community-driven development
Greater control and customization
No licensing fees (but implementation costs)
Requires in-house expertise
Potential security and maintenance challenges
Understanding the terms regarding the model’s training data = MOST IMPORTANT to assess data privacy risks, IP issues, and compliance with data protection regulations.
Understanding data ownership == critical to address clauses related to data ownership, to ensure no copyrighted data is being used without consent which could lead to infringement claims. Additionally, specifying in the agreement who ultimately owns the output will determine who has the right to use it and how it can be used
Small vs. Large Models:
Small Models:
Fewer parameters (millions to low billions)
Faster inference times
Lower computational costs
Can run on edge devices
More specific/narrow capabilities
Easier to interpret and audit
Large Models:
Many parameters (billions to trillions)
Higher computational requirements
Broader capabilities and knowledge
Better performance on complex tasks
More expensive to deploy and maintain
Harder to fully understand behavior
Language vs. Multimodal Capabilities:
Language Models:
Text-only inputs and outputs
Focused on natural language understanding
Examples: text generation, translation, summarization
Multimodal Models:
Handle multiple data types (text, images, audio, video)
More complex risk profiles
Broader application possibilities
Examples: image captioning, visual question answering, text-to-image generation
Understanding AI Deployment Options
Cloud Deployment:
Hosted by third-party provider (AWS, Azure, GCP)
Scalable and flexible
Lower upfront infrastructure costs
Data leaves organizational control
Dependency on internet connectivity
Potential data sovereignty issues
On-Premise Deployment:
Hosted on organization's own infrastructure
Greater control over data and security
Higher upfront capital costs
Requires internal expertise
Limited by physical infrastructure
Better for sensitive data
Edge Deployment:
Processing occurs on local devices
Lower latency and faster response times
Reduced bandwidth requirements
Enhanced privacy (data stays local)
Limited by device computational power
More complex model updates
Performance Improvement Techniques:
Using AI Model As-Is:
Quickest deployment
No customization
May not fit specific use case well
Lower initial cost
Fine-Tuning:
Adapting pre-trained model to specific domain
Requires labeled domain-specific data
Improves performance for specific tasks
Moderate resource requirements
Retrieval Augmented Generation (RAG):
Combines model with external knowledge base
Retrieves relevant information to enhance responses
Reduces hallucinations
Allows for up-to-date information without retraining
Requires vector database infrastructure
Other Techniques:
Prompt engineering: optimizing input prompts
Few-shot learning: providing examples in prompts
Model ensembles: combining multiple models
Continuous learning: ongoing model updates
Domain IV.b - key activities to assess the AI model
Impact Assessments = conducted BEFORE the model goes live
Purpose:
Identify potential positive and negative impacts
Evaluate risks before deployment
Document decision-making process
Meet regulatory requirements
Key Components:
Affected stakeholder groups
Potential harms and benefits
Severity and likelihood of risks
Mitigation strategies
Human rights considerations
Environmental impact
Assessment Types:
Algorithmic Impact Assessment (AIA)
CAnadian name for a structured way to think about risks, particularly for gov sectors, by thinkign about design, data, and impacts
Data Protection Impact Assessment (DPIA)
Fundamental Rights Impact Assessment (FRIA)
Identifying Key Legal Frameworks (see domain ii)
Data Protection Laws:
GDPR (EU): requirements for automated decision-making
CCPA/CPRA (California): consumer rights regarding AI
Other state and national privacy laws
AI-Specific Regulations:
EU AI Act: risk-based classification and requirements
Proposed US federal AI legislation
Sector-specific regulations (finance, healthcare, employment)
Anti-Discrimination Laws:
Fair Credit Reporting Act (FCRA)
Equal Employment Opportunity Commission (EEOC) guidelines
Fair Housing Act
Civil Rights Acts
Intellectual Property:
Copyright considerations for training data
Patent protection for AI inventions
Trade secret protection
Product Liability:
Responsibility for AI system failures
Consumer protection laws
Warranty obligations
Industry-Specific Regulations:
Healthcare: HIPAA, FDA regulations
Financial services: fair lending laws, SEC requirements
Automotive: safety standards for autonomous vehicles
Vendor or licensing agreements - key terms & risks
Include third-party vendors that are integrated into your system, as they may need to also be notified.
WATCH OR READ
From PWC: orgs should
Revisit third party vendor contracts. Update agreements to require disclosure when vendors use AI in service delivery. Include provision for notification and risk transparency. Create incentives for vendors to innovate responsibly with AI. in general, encourage vendor use of responsible AI
Examine data usage policies
Check if third parties are using your data to train AI models.
Require clear documentation of data-handling practices, consent mechanisms, limitations on data re-use
Perform AI-specific due diligence and ongoing monitoring
Require/push AI vendors to provide greater transparency and evidence of control on model dev, data privacy, bias mitigation, auditability
Modify your third-party risk management to account for AI use cases.
Ask AI questions during assessments - about model design, data sources, risk controls, monitoring, etc
Track and respond to regulations, and make sure your third parties’ practices align with all requirements
Consider standardization - use preferred, pre-vetted providers whose AI practices align with the organization’s Responsible AI standards.
Vendor Agreement Key Terms:
Acceptable Use Policy (AUP)
= sets primary terms and conditions under which the AI system can be used, including limittaions, prohibited uses, operational constraints
Most critical document to assess what you can and cannot d owithin the AI system
User Privacy Notice
Unlike internal policies or general privacy notices, the user privacy notice p rovides direct transparency to the individual data subjectsaffected by AI processing.
Service Level Agreements (SLAs):
Uptime guarantees
Performance benchmarks
Response times for support
Remedies for non-compliance
Data Rights and Usage:
Who owns input data
Who owns output data
Training data usage rights
Data retention and deletion policies
Liability and Indemnification:
Limits of liability
Indemnification for IP infringement
Indemnification for compliance violations
Insurance requirements
Security and Compliance:
Security certifications (SOC 2, ISO 27001)
Compliance attestations
Audit rights
Breach notification procedures
Termination and Exit:
Data portability provisions
Transition assistance
Post-termination data handling
Continuity planning
Open Source License Considerations:
Common Licenses:
Permissive: MIT, Apache 2.0, BSD (minimal restrictions)
Copyleft: GPL, AGPL (derivative works must be open source)
Model-specific: OpenRAIL, Responsible AI Licenses
Key Risks:
License compliance obligations
Derivative work requirements
Attribution requirements
Patent grant considerations
Commercial use restrictions
Issues when your company deploys its own proprietary model!
Increased Obligations:
Cannot transfer liability to third-party vendor
Full responsibility for model behavior
Must maintain internal expertise
Complete documentation requirements
End-to-end risk management
Higher Potential Liability:
You are Directly liability for harms
No vendor indemnification
Reputational risks
Regulatory enforcement actions
Civil litigation exposure
Resource Requirements:
Dedicated AI governance team
Technical infrastructure
Ongoing monitoring capabilities
Legal and compliance expertise
Incident response capabilities
Best practices and ethical considerations - AI development
Data Governance:
Data minimization
Purpose limitation and use restriction
Data quality standards
Data lineage tracking, provenance
Access controls and permissions
Data retention policies
Privacy-preserving techniques
Risk Management:
Risk identification and assessment
Risk treatment strategies
Risk appetite and tolerance definition
Control implementation and effectiveness testing
Regular risk reviews
Integration with existing privacy risk procedures!
Issue Management:
Incident reporting procedures
Escalation pathways
Root cause analysis
Remediation tracking
Lessons learned documentation
Communication to affected stakeholders
User Training:
Appropriate use guidelines
Limitation awareness
Output verification requirements
Bias recognition
Escalation procedures
Hands-on practice sessions
Ethical Considerations:
Fairness testing and monitoring
Explainability requirements
Human oversight mechanisms
Stakeholder engagement
Impact assessment reviews
Domain IV.c govern the deployment and USE of the AI model
Apply the policies, procedures, best practices, and ethical considerations to the deployment of the AI model
Data governance
Risk management
Issue management
User training
Continuous monitoring.
Model Performance - whichever metrics are applicable
Accuracy, precision, recall, F1 score
Prediction confidence scores
Error rates and types
Performance across different subgroups (demographic parity)
Model Drift from baseline metrics. Performance in real-world, production settings.
Data draft = input data distribution is changing
Prediction drift // model inference = changes in model output distribution
Concept drift = changes in the underlying data distribution that degrade model performance
Data drift = changes in the input data characteristics that the model wasn’t trained on → model’s predictive capabilities get worse
Could be due to new data sources, new data collection methods, or actual population changes
Emerging biases = new unfair or discriminatory behavior
Fairness and bias
Demographic parity, disparate impact metrics
Subgroup performance analysis
Intersectional fairness
Feedback loops and bias amplification detection
Data Quality:
Input data distribution shifts
Missing or corrupted data
Data anomalies
Feature importance changes
System Health:
Response times and latency
Throughput and capacity utilization
Error rates and system failures
Resource consumption
Security monitoring
Adversarial attack detection
Data poisoning indicators
Model extraction attempts
Prompt injection and jailbreaking (for LLMs, agents)
Unauthorized access and use
Anomalous behavior patterns
Monitoring Frequency:
Real-time monitoring for critical applications
Daily or weekly for moderate-risk systems
Monthly for lower-risk applications
Event-triggered monitoring for specific scenarios
And make a regular schedule for maintenance, updates, and retraining.
Model Updates:
Scheduled retraining frequency
Trigger thresholds for retraining (e.g., performance degradation)
Version control and rollback procedures
A/B testing new model versions
Software Updates:
Security patches
Dependency updates
Infrastructure upgrades
Compatibility testing
Retraining Considerations:
New training data availability
Concept drift detection
Regulatory requirement changes
Business requirement evolution
Periodic assessments - performance, reliability, safety
Audits:
Internal audits of AI systems
External third-party audits
Compliance audits (regulatory requirements)
Technical audits (model performance)
Process audits (governance adherence)
Audit Frequency:
Risk-based approach (high-risk: quarterly; low-risk: annually)
Regulatory requirements
After significant incidents
Before major deployments or changes
Red Teaming:
Adversarial testing to find vulnerabilities
Attempt to trigger harmful outputs
Test edge cases and failure modes
Simulate attack scenarios
Cross-functional red team composition
Threat Modeling:
Identify potential threat actors
Map attack vectors and vulnerabilities
Assess likelihood and impact
Prioritize mitigation efforts
Update threat landscape regularly
Security Testing:
Penetration testing
Vulnerability assessments
Input validation testing
Data poisoning resilience
Model extraction attacks
Prompt injection testing (for generative AI)
Documentation Requirements and post-market monitoring
Incident Documentation:
Description of the incident
Classification: severity & type
Affected systems and users
Root cause analysis
Impact assessment
Response actions taken
Lessons learned
Issue Tracking:
Known limitations and bugs
Feature requests
Performance degradations
User feedback
Resolution status and timeline
Risk Documentation:
Risk register maintenance
Risk assessments and updates
Control effectiveness
Residual risk tracking
Risk reporting to governance bodies
Post-Market Monitoring Plans:
Ongoing surveillance activities
Performance metrics to track
Reporting requirements
Stakeholder communication
Continuous improvement process
Forecasting and reducing risks of secondary and intended uses
Forecasting potential misuses
Consult stakeholders
Scenario planning
Preventing secondary use
Model cards! Define clear use cases
Access controls and authentication
Usage monitoring and logging
Terms of service enforcement
Technical controls (rate limiting, watermarking)
User education on appropriate use
Downstream Harms:
Impact of AI outputs on downstream decisions
Cascading failures across systems
Misuse of AI-generated content
Reputation damage
Societal impact
Preventing downstream harms:
Supply chain assessment, customer due diligence, contractual restrictions on use, audit rights and monitoring, termination provisions for mis-use
Risk reduction Strategies:
Output validation and verification
Human-in-the-loop review
Confidence thresholds
Clear disclaimers and limitations
Sandboxing and testing environments
User educational and awareness
Monitoring for weird patterns
Ability to report misuse
External Communication Plans
Stakeholder Communication:
Users: how AI affects them, their rights
Regulators: show compliance
Public: transparency and accountability
Media: proactive communication strategy
Transparency Reports:
AI system capabilities and limitations
Training data sources
Performance metrics
Known issues and risks
Update history
Incident Communication:
Prompt notification to affected parties
Clear explanation of what happened
Steps being taken to address issue
Timeline for resolution
Contact information for questions
Deactivation and Localization Controls
Deactivation Policy:
When to Deactivate:
Performance falls below acceptable thresholds
Security vulnerabilities discovered
Regulatory requirements mandate cessation
Unacceptable bias or discrimination detected
Business case no longer justified
Deactivation Process:
Clear authority and decision-making
Graceful shutdown procedures
User notification
Alternative solution provision
Data retention and archival
Post-deactivation monitoring
Localization Controls:
Geographic Restrictions:
Compliance with local regulations
Cultural appropriateness
Language requirements
Data residency requirements
Access Controls:
User group restrictions
Feature gating by user type
Environment-specific deployments (production vs. test)
task-based access controls
Rollback Procedures:
Version control systems
Automated rollback triggers
Testing rollback procedures
Communication during rollbacks
Root cause analysis for failures
Ensure interoperability of AI risk management with other operational risk strategies
Ex. security risk, privacy risk, business risk.
“The AI models constitute valuable intellectual assets, demanding features that prevent unauthorized access or tampering.”
“Depending on the sector—such as healthcare or finance—the stack must be compliant with industry-specific regulations like HIPAA or PCI-DSS”
Integrate AI governance principles into the company
Adopt a pro-innovation mindset.
Ensure governance is risk-centric.
Ensure planning and design is consensus-driven.
Ensure the team is outcome-focused.
Adopt a non-prescriptive approach to allow for intelligent self-management
Ensure the framework is law-, industry-, and technology-agnostic.
Establish an AI governance infrastructure
Determine if you are a developer, deployer (those that make an AI system available to third parties) or user; understand how responsibilities among companies that develop AI systems and those that use or deploy them differ; establish governance processes for all parties; establish framework for procuring and assessing AI software solutions.
Establish and understand the roles and responsibilities of AI governance people and groups including, but not limited to, the chief privacy officer, the chief ethics officer, the office for responsible AI, the AI governance committee, the ethics board, architecture steering groups, AI project managers, etc.
Advocate for AI governance support from senior leadership and tech teams by:
Understanding pressures on tech teams to build AI solutions quickly and efficiently.
Understanding how data science and model operations teams work.
Being able to influence behavioral and cultural change.
Establish organizational risk strategy and tolerance.
Develop central inventory of AI and ML applications and repository of algorithms.
Develop responsible AI accountability policies and incentive structures.
Understand AI regulatory requirements.
Set common AI terms and taxonomy for the organization.
Provide knowledge resources and training to the enterprise to foster a culture that continuously promotes ethical behavior.
Determine AI maturity levels of business functions and address insufficiencies.
Use and adapt existing privacy and data governance practices for AI management.
Create policies to manage third party risk, to ensure end-to-end accountability.
Understand differences in norms/expectations across countries.
Map, plan and scope the AI project
Define the business case and perform cost/benefit analysis where trade-offs are considered in the design of AI systems. Why AI/ML?
Identify and classify internal/external risks and contributing factors (prohibitive, major, moderate).
Construct a probability/severity harms matrix and a risk mitigation hierarchy.
Perform an algorithmic impact assessment leveraging PIAs as a starting point and tailoring to AI process. Know when to perform and who to involve.
Establish level of human involvement/oversight in AI decision making.
Conduct a stakeholder engagement process that includes the following steps:
Evaluate stakeholder salience.
Include diversity of demographics, disciplines, experience, expertise and backgrounds.
Perform positionality exercise.
Determine level of engagement.
Establish engagement methods.
Identify AI actors during design, development, and deployment phases.
Create communication plans for regulators and consumers that reflect compliance/disclosure obligations for transparency and explainability (UI copy, FAQs, online documentation, model or system cards).
Determine feasibility of optionality and redress.
Chart data lineage and provenance, ensuring data is representative, accurate and unbiased.
Use statistical sampling to identify data gaps.
Solicit early and continuous feedback from those who may be most impacted by AI systems.
Use test, evaluation, verification, validation (TEVV) process.
Create preliminary analysis report on risk factor and proportionate management.
Test and validate the AI system during development
Evaluate the trustworthiness, validity, safety, security, privacy and fairness of the AI system using the following methods:
Use edge cases, unseen data, or potential malicious input to test the AI models.
Conduct repeatability assessments.
Complete model cards/fact sheets.
Create counterfactual explanations (CFEs).
Conduct adversarial testing and threat modeling to identify security threats.
Refer to OECD catalog of tools and metrics for trustworthy AI.
Establish multiple layers of mitigation to stop system errors or failures at different levels or modules of the AI system.
Understand trade-offs among mitigation strategies.
Apply key concepts of privacy-preserving machine learning and use privacy-enhancing technologies and privacy-preserving machine learning techniques to help with privacy protection in AI/ML systems.
Understand why AI systems fail. Examples include: brittleness; hallucinations; embedded bias; catastrophic forgetting; uncertainty; false positives.
Determine degree of remediability of adverse impacts.
Conduct risk tracking to document how risks may change over time.
Consider, and select among different deployment strategies.
Manage and monitor AI systems after deployment
Perform post-hoc testing to determine if AI system goals were achieved, while being aware of ″automation bias.″
Prioritize, triage and respond to internal and external risks.
Ensure processes are in place to deactivate or localize AI systems as necessary (e.g., due to regulatory requirements or performance issues).
Continuously improve and maintain deployed systems by tuning and retraining with new data, human feedback, etc.
Determine the need for challenger models to supplant the champion model.
Version each model and connect them to the data sets they were trained with.
Continuously monitor risks from third parties, including bad actors.
Maintain and monitor communication plans and inform user when AI system updates its capabilities.
Assess potential harms of publishing research derived from AI models.Conduct bug bashing and red teaming exercises.
Forecast and reduce risks of secondary/unintended uses and downstream harm of AI models.
Contemplating Ongoing Issues and Concerns
Awareness of legal issues
How will a coherent tort liability framework be created to adapt to the unique circumstances of AI and allocate responsibility among developers, deployers and users?
Web-scraping to train AI
In the US
Computer Fraud and Abuse Act (1986), web data scraping expanded by U.S. Patriot Act in 2001 and, most recently, through passage of the Identity Theft Enforcement and Restitution Act in 2008.
Within the CCPA Final Regulations, approved by the California Office of Administrative Law in March, Section 7012(h) further clarifies that: "A business that neither collects nor controls the collection of personal information directly from the consumer does not need to provide Notice at Collection to the consumer if it neither sells nor shares the consumer's personal information."
Thus, according to a blog by Nate Garhart, special counsel at Farella, Braun, and Martel, no notice needs to be provided for:
A data scraper that does not sell the scraped personal information.
A data scraper that uses the scraped information for their own purposes, even for marketing to identified customers.
A data scraper that collects data, deidentifies it, and then sells the deidentified collection of data.
On the other hand, according to Garhart, a scraper selling collections of scraped data that include personal information would be subject to the requirement to provide notice at collection. This may apply to AI products trained on personal data scraped fromthe web.
In the EU
The GDPR outlines six lawful bases that can justify data collection and processing: consent, contract, legal obligation, vital interest, public task and legitimate interest. Under most interpretations of the GDPR, these Article 6 requirements apply whether the information is obtained from a publicly accessible source or collected directly from the data subject.
What are the challenges surrounding AI model and data licensing?
Intellectual Property (IP)
What intellectual property (IP) rights exist in the output of an AI model?
Can AI models create trade secrets, copyrights, or even inventive subject matter? If so, who owns the associated IP rights? The owner could be the licensor or licensee (or maybe the model itself?)
Performance and Reliability
Licensees should insist on minimum performance metrics to ensure that the licensed model provides adequate accuracy, reliability, and robustness. If the model does not perform as expected, the business consequences may be severe, and could lead to litigation. Licensees should craft warranties and indemnities to ensure that they do not unreasonably bear the risk of underperformance.
Data Protection and Confidentiality
While data transfers are a standard component of software licenses, using licensee data to improve AI products presents additional privacy and cybersecurity concerns beyond those of a typical software agreement.
Licensees should ensure that any uses of data are consistent with applicable privacy laws and consistent with the privacy notices provided to their users. Numerous states are adopting laws relating to AI and automated decision-making, so licensees will need to stay updated on developments in this area to ensure ongoing compliance.
Can we develop systems that respect IP rights?
“The resulting generative AI models need not be trained from scratch but can build upon open-source generative AI that has used lawfully sourced content. This would enable content creators to produce content in the same style as their own work with an audit trail to their own data lake, or to license the use of such tools to interested parties with cleared title in both the AI’s training data and its outputs”
Tangent argument: “AI systems can also generate new works protectable by copyright, such as creating new artwork or music. However, most copyright statutes do not yet not clearly define who owns machine-generated works.“
A deployed genAI system should respect IPR. this means adhering to licensing terms and ensuring that generated content complies with these terms. A system that categorizes and applies filters based on licensing terms ensures that content is used legally and ethically, respecting the rights of content creators.
Awareness of user concerns
How do we properly educate users about the functions and limitations of AI systems?
AI Literacy - “equipping individuals with the knowledge and skills to understand, use, and interact with AI responsibly and effectively. It's about enabling people to make informed decisions about AI technologies, understand their implications, and navigate the ethical considerations they present.”
How do we upskill and reskill the workforce to take full advantage of AI benefits?
By nurturing complementary skills, it is possible to create a workforce that seamlessly integrates with AI, leveraging its capabilities to amplify human potential.
Creativity and Innovation through Critical Thinking and Problem-Solving by leveraging AI's insights to develop groundbreaking solutions
Communication and Collaboration by translating AI's findings into actionable strategies
Emotional Intelligence and Social Skills to foster trust and collaboration in AI-driven environments
Ethical Decision-Making and Bias Awareness to be mindful of ethical implications and social impact, to ensure that AI is used responsibly and ethically
While reskilling is the process of learning new skills to adapt to new job requirements, upskilling helps enhance existing skills to improve one's performance in their current job. There are several reasons why reskilling and upskilling are important in the AI-driven workplace, such as:
Staying competitive: Workers with the latest skills are more likely to be hired and promoted.
Increasing job satisfaction: Workers who are challenged and engaged in their work are more likely to be satisfied with their jobs.
Improving productivity: Workers with the right skills are more productive and efficient.
Reducing the risk of job displacement: Workers who are adaptable and can learn new skills are less likely to be displaced by automation.
Here are a few ways in which people leaders can leverage AI / ML technology for skilling:
Assessing skill gaps: Identify the skills that are needed for future jobs in the organization.
Developing training programs: Create or partner with training providers to offer training programs that teach the skills that are needed.
Providing financial assistance: Offer financial assistance to employees who are participating in training programs.
Promoting a culture of lifelong learning: Encourage employees to take advantage of learning opportunities.
Can there be an opt-out for a non-AI alternative?
“You should be able to opt out, where appropriate, and have access to a person who can quickly consider and remedy problems you encounter. You should be able to opt out from automated systems in favor of a human alternative, where appropriate.”
When assessing whether users should be given the right to opt out from an AI system, the primary considerations are feasibility, risk to users, and industry practice. Feasibility addresses whether the opt-out mechanism can be practically implemented. Risk to users assesses the potential harm or benefits users might face if they cannot opt out. Industry practice considers the norms and standards within the industry.
Awareness of AI auditing and accountability issues
How can we build a profession of certified third-party auditors globally – and consistent frameworks and standards for them?
What are the markers/indicators that determine when an AI system should be subject to enhanced accountability, such as third-party audits (e.g., automated decision-making, sensitive data, others)?
How do we enable companies to remain productive using automated checks for AI governance and associated ethical issues, while adapting this automation quickly to the evolving standards and technology?
Other Notes:
One of the findings from the IAPP Privacy and Consumer Trust Report concerned a set of behaviors referred to as privacy self-defense. These include deciding against an online purchase, deleting a smartphone app or avoiding a particular website due to privacy concerns. When consumers lose trust in how their data is being collected and used, they are more likely to engage in these self-defensive behaviors to protect their privacy.
The European Commission signed off on its Ethical Guidelines for Trustworthy AI which outlines “four principles or “ethical imperatives” call for AI systems to respect human autonomy, prevent harm, incorporate fairness and enable explicability. Another layer of guidance advises that AI respect human dignity, individual freedom, democracy, justice, the rule of law, equality, non-discrimination, solidarity and citizens’ rights.”

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