WEBVTT

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This opening slide introduces the foundation of responsible AI development.

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Generative AI systems are no longer experimental tools.

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They actively influence real decisions, shape opinions, and impact opportunities at scale.

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The title and subtitle emphasize a critical goal building AI systems that earn and maintain user trust.

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The visual on this slide shows the connected neural structure surrounded by symbols representing fairness,

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protection, and accountability.

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This reinforces the idea that ethics is not a single feature, but a network of responsibilities embedded

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throughout the system.

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This section is not about abstract philosophy.

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It is about practical decisions engineers and product teams make every day what data to use, what behavior

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to allow, and how to respond when things go wrong.

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Ethical choices shape how users experience AI.

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By the end of this section, you should recognize that ethics is not a constraint on innovation.

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It is what allows innovation to scale responsibly and sustainably.

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This slide explains why ethics is an operational necessity, not an optional add on.

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As highlighted in the slide text, generative AI systems shape critical aspects of modern life, from

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hiring and education to healthcare and finance.

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The slide breaks ethical impact into three dimensions.

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User impact emphasizes that AI decisions affect people's lives, careers, and well-being.

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Legal risk reflects the tightening global regulatory landscape where violations can lead to serious

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penalties.

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Trust capital underscores a powerful truth.

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Once users lose trust in an AI system, it is extremely difficult to rebuild.

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The key insight at the bottom of the slide is particularly important.

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Every deployed AI system reflects the values of its creators.

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What your system does and does not do reveals what you prioritize.

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Ethics must therefore be embedded into every stage of development and deployment.

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Without ethical guardrails, technical success becomes organizational risk.

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This slide explores where bias and generative AI systems comes from.

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A critical point made here is that models do not invent bias.

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They learn and amplify patterns present in their training data and design.

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The slide outlines four major sources.

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Training data imbalance occurs when data sets overrepresent certain groups, languages, or perspectives.

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Historical and societal bias reflects discrimination and stereotypes embedded in source material, language

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and cultural dominance.

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Often prioritizes English and Western contexts at the expense of global diversity.

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Feedback loop amplification occurs when user interactions reinforce existing biases rather than correcting

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them.

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The visual on this slide reinforces interconnected pathways, symbolizing how bias propagates through

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systems over time.

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The reality statement at the bottom is crucial.

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Models learn statistical correlations, not ethical principles.

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Recognizing this limitation is the first step toward responsible mitigation.

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This slide identifies common bias patterns that appear in deployed systems.

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Demographic bias shows up as different outputs based on gender, race, or age.

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Such as skewed hiring or healthcare recommendations.

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Cultural and geographic bias manifests as Western centric assumptions or culturally inappropriate suggestions.

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Confirmation bias reinforces user assumptions instead of challenging incorrect beliefs.

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Representation bias leads to missing perspectives or stereotypical portrayals.

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The example at the bottom of the slide, identical prompts with different demographic names producing

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different outcomes, illustrates how subtle and measurable bias can be.

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These issues often emerge through aggregate behavior rather than isolated failures.

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The engineering challenge highlighted here is critical.

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Bias is rarely obvious in a single response.

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It requires systematic testing across large samples and scenarios.

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Spot checking is not enough.

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This slide reframes fairness as a design requirement rather than an emergent property.

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Fair systems demonstrate consistent behavior, ensuring similar inputs receive similar treatment.

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They provide equal access, allowing all users to leverage full system capabilities.

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They produce non-discriminatory outcomes, avoiding systematic disadvantage to protected groups.

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The slide also outlines practical implementation approaches.

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Diverse evaluation data sets ensure testing across demographics, languages and use cases.

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Biased testing protocols systematically measure differential performance during development.

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Human review adds expert oversight for sensitive or high stakes outputs.

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The rule at the bottom is unambiguous fairness must be designed from the start.

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Retrofitting fairness after deployment is expensive, incomplete and often ineffective.

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This slide focuses on data privacy risks unique to generative AI.

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Unlike traditional software, Llms can memorize and reproduce sensitive information, creating new vectors

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for privacy violations.

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The slide identifies key risks.

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Training data exposure can lead to personal or proprietary information appearing in outputs.

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Prompt logging creates databases of sensitive user queries that become breach targets.

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Model memorization allows regurgitation of specific training.

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Examples.

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Unintentional leakage can occur through inference attacks over time.

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High risk domains such as healthcare, finance, legal services, and HR systems require heightened

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vigilance due to regulatory and ethical obligations.

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The core message is clear Privacy failures are often subtle and cumulative.

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Preventing them requires both technical safeguards and disciplined data practices.

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This slide presents concrete best practices for responsible data handling.

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The guiding principle is simple collect only what you need.

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Protect everything you keep, and delete what you no longer use.

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The slide outlines four actionable steps.

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Minimize collection by questioning every data point gathered.

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Limit retention by avoiding storage of raw prompts whenever possible.

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Encrypt everything both at rest and in transit using industry standards.

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Control access to a strict role based permissions and comprehensive audit logging.

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The statistic on this slide is striking 83% of data breaches involve unnecessary collected data.

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This reinforces the principle at the bottom if you don't need the data, don't keep it.

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Good privacy practice is both ethical and practical.

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It reduces risk by reducing attack surface.

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The final slide focuses on transparency as the foundation of user trust.

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Users deserve to know when they are interacting with AI, what it can and cannot do, and when its confidence

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is limited.

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The slide outlines for trust building practices disclose AI usage clearly explain limitations honestly.

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Signal uncertainty when the system is less confident.

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Enable user control over data and interaction loads.

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It also highlights anti-patterns that erode trust, hiding AI involvement, overstating accuracy, and

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masking failures or hallucinations.

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These practices may temporarily improve perception, but they destroy trust long term.

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The closing statement is powerful.

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Transparency is not a feature to AB.

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Later, it must be embedded from day one.

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Users can forgive limitations they understand, but they will not forgive deception.
