WEBVTT

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Okay, let's unpack this. We've all seen AI as

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this brilliant conversationalist, right? A super

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smart chatbot, you ask something, and boom, you

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get this amazing answer. But the AI that's really

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going to change things, the one for the next

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decade, it doesn't just wait for you to ask.

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It's proactive. Imagine an AI checking flight

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prices for you, sees a big drop, checks your

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calendar, and just books your trip, all automatically,

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talking to different apps. That kind of independence,

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that takes some serious next -level engineering.

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Today, we're diving into the advanced stuff,

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the architectures that make that kind of autonomy

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actually work. Welcome, everyone, to the Deep

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Dive. So if you're already good with the basics,

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you know, LLMs, vector databases, ROG, then you

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are definitely ready for what's next. Our mission

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today. Go beyond those fundamentals. We're hitting

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10 critical advanced concepts. Stuff architects,

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developers, anyone planning AI strategy really

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needs to grasp. We're going to figure out how

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AI connects to the real world, how it actually

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reasons, learns on the fly, and super important,

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how we make it affordable and fast enough to

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deploy. We'll look at how AI takes action, how

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it gets smarter, and how engineers make it efficient.

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Let's start with how AI gets out of its virtual

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box. Yeah, that's the big hurdle, isn't it? And

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LLM, just by itself, it's kind of trapped. lives

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in its text world, how does it actually reach

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out and do something? Talk to an airline's booking

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system. Right. It needs a standard way to shake

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hands, basically. And that's where the model

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context protocol, MCP, comes into play. Think

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of it as the essential bridge, the agreed upon

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language for taking action. MCP sets up a structured

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way for the AI client that's usually the wrapper

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around the LLM to talk to outside systems, which

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we call MCP servers. It's like a really formalized

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API structure. Okay. So if the LLM figures out

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I need to book that flight. It uses MCP to frame

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a standard request, like call the Indigo booking

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server, use flight 1020, date X, something like

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that. Exactly like that. And this is huge because

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it brings in security and reliability. Standardizing

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how they talk. That cuts down the risk of weird

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stuff like prompt injection or the model just

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making up API calls. It really shifts AI from

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just talking about tasks to reliably doing them

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in real systems. It's the plumbing you need for

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actual digital agents. Got it. So MCP handles

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talking to the outside world. But inside, the

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AI needs to remember what's going on, what we've

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talked about. That sounds like context engineering,

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which is way more than just writing one good

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prompt at the start. Oh, definitely. This is

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the really sophisticated art of managing that

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ongoing conversation history. You've got that

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limited context window, the model's short -term

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memory. You have to work around that and make

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it feel deeply personal. I mean, if you're interacting

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with an AI agent over weeks, it absolutely needs

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to remember what you like, what you didn't like

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last time, your specific rules. And keeping that

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straight. Honestly, I still wrestle with prompt

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drift myself sometimes. You craft this perfect

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starting instruction, but... 30 messages later,

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that AI seems to have completely forgotten it.

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Yeah, we fight that with some clever tricks.

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You can use a sliding window, just keeping the

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most recent chat history in focus. Or, more advanced,

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smart truncation. That's where you use a smaller,

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faster AI to kind of summarize the long history

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before feeding the important bits to the big

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model. It's all about creating this dynamic,

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hyper -relevant context on the fly. That sounds

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crucial for making a generic chatbot feel like

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a personal assistant that actually gets you.

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Absolutely. It's what delivers that coherence,

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that personalization, especially when conversations

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get really long and complex and twisty. Okay.

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Which brings us nearly to the big payoff here.

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Agents. These are the systems that really run

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on their own. We've given the AI access to the

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outside, MCP, and a memory, context engineering.

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What's the final piece? Initiative. That's the

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key difference. An agent is autonomous. It has

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planning skills. A chatbot just reacts to what

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you say now. An agent. It takes action based

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on a goal you might have set days, even weeks

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ago. So this agent has memory. It can use tools

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through MCP. And critically, it can break down

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a big, complex goal into lots and lots of smaller

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steps. It executes them one by one, checks if

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it's working, corrects course if needed. I love

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that autonomous travel agent idea. You tell it

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once, book my usual vacation when the price hits

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the sweet spot. And this agent just... running

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quietly in the background, 247 is watching fares,

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connects to the airline, the hotel, checks your

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calendar, and does the whole thing without you

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needing to nudge it again. It's that jump from

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just reactive help to being proactive, strategic.

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These things act like digital employees working

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around the clock. Right. So we've built a system

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that can act. Now, how do we make sure its actions

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are, well, good, aligned with what we want, and

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genuinely smart? Let's start with reinforcement

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learning, RL. RL is all about shaping behavior.

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You train the AI using a system of rewards and

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penalties, essentially, optimizing what it does

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based on human feedback. Think kind of like training

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a dog with treats. So the process is the model

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gives you a few possible responses, a human picks

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the better one, and that choice gets turned into

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like a mathematical score. If your choice was

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good, all the internal calculations the model

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used to get there get nudged in a positive direction.

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Bad choice. nudged negative. So you're steering

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the model's path through its huge possibility

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space towards outputs we find useful or helpful.

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Precisely. And it's really powerful for optimizing

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very complex behaviors. Like if you want an AI

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that's consistently helpful, polite, but also

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thorough, RL is great at shaping that kind of

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nuanced output, maybe better than just showing

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it examples. But there's catch. RL is great at

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optimizing the behavior, but it doesn't always

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build deep understanding. It can learn the pattern

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of what response makes the human happy without

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truly getting the underlying facts. Okay, that's

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a subtle but really important point. So to make

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sure the logic itself is sound, we need something

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like chain of thought. Say AT. This is about

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making the AI show its work, right? Exactly.

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Hardy forces the AI to break down the problem.

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We're not just asking for the final number. We're

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telling it, show me the steps. Make it explicit,

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like how a person would solve it on paper. So

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if you ask it to calculate, say, a tricky sales

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commission with different tiers and taxes, it

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won't just give you the dollar amount. It has

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to spell out. First, convert the percentage,

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calculate tier one, calculate tier two, add them

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up, maybe round it off. That focus on showing

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the intermediate steps seems vital for trust

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and for fixing things, especially in fields like,

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I don't know, engineering or finance, where a

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mistake in step two messes everything else up.

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You can see where it went wrong. It absolutely

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cuts down on those multi -step errors because

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the model is kind of checking its own work as

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it goes. It makes the LLM a much more reliable

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reasoning tool. But Coty is still kind of following

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a known recipe, even if it shows the steps. The

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real frontier. reasoning models that's where

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the ai starts to figure out the recipe itself

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for new problems that's exactly it that's the

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cutting edge right now these models are built

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to figure out how to tackle problems they've

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never seen before not just applying patterns

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they memorize during training they use really

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sophisticated strategies things like tree of

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thought where the ai explores multiple possible

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solution paths like branches of a tree before

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picking the best one or graph of thought which

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can handle problems where steps aren't just linear

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they depend on each other in complex ways Okay,

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so if Chain of Thought is like following a marked

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trail, reasoning models are like expert navigators

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charting a course through totally unknown territory,

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maybe grabbing different tools as needed, picking

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the best strategy for something completely novel.

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It's about cognitive flexibility. You see things

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like OpenAI's O1 or DeepSeek R1 really pushing

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here. It's aiming for that true strategic thinking

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needed for, say, scientific breakthroughs or

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designing complex systems. That kind of thinking

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power probably needs more than just text data.

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Let's shift gears to data types with multimodal

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models. Right, because the world isn't just words.

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These models are trained to handle multiple kinds

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of data at the same time, text plus images or

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video or audio. And the big advantage, it's how

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they learn. Imagine an AI that hasn't just read

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millions of sentences about cats, but has also

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seen millions of pictures and videos of cats.

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It builds a much richer, deeper, almost multisensory

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understanding of catness than a text -only model

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ever could. Yeah, that deeper understanding seems

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key for applications where different data types

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merge. Like analyzing medical scans alongside

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doctor's notes or creating marketing campaigns

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where the images and text really work together

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seamlessly. Exactly. It's not just linking different

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data. It's fusing the concepts together at a

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deeper level. Okay, now let's talk efficiency.

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Because not every task needs a planet -sized

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AI. There's a big move towards small language

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models, SLMs too. A huge move. Yeah, we're talking

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about much more focused AIs. maybe 3 million

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parameters, up to a few hundred million. You

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trade that broad general knowledge of a giant

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LLM for incredibly sharp expert level skill on

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one specific narrow task. And the benefits are

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massive. They're way cheaper to run, they're

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much faster, and you get tighter control, especially

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over your own private data. You can fine tune

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an SLM on your company's specific jargon or processes

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and get amazing performance just for that niche.

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So instead of paying for the giant general practitioner

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LLM for everything, you deploy a a cost -effective

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specialist, SLM. Maybe one for customer service

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queries, another for summarizing legal docs that

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does its one job brilliantly and cheaply. That's

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the play. It's the smart way to specialize and

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scale AI across very specific business functions

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without breaking the bank. But what if you want

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the smarts of the big model, but need the speed

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and cost of the small one? That's where distillation

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comes in. Precisely. Distillation is this cool

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teacher -student process. You take a huge, knowledgeable

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teacher model and essentially compress its wisdom

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into a smaller, faster student model. How? Well,

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you feed the same prompts to both models. Then

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you train the... student model, not just to get

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the right answer, but to mimic the way the teacher

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model arrives at its answer, matching its internal

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patterns and probability outputs. So you're basically

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downloading the teacher's expertise, or most

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of it, into a lean, production -ready student.

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That's the idea. You want a smaller, faster model

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that's really optimized for running millions

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of times in production, saving time and money.

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you usually accept a tiny, almost negligible

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loss in nuance, but gain massively in efficiency.

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And the final optimization trick, really down

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on the weeds technically, quantization, shrinking

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the memory footprint. Yeah, this one's purely

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about efficiency. It's about reducing the precision

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of the numbers the model uses for its internal

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weight. So instead of using super precise, like

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32 -bit... floating point numbers you can press

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them down maybe to simpler 8 -bit integers it's

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kind of like saving a huge high -res photo file

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as a smaller jpeg you lose a microscopic bit

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of fidelity maybe but the file size reduction

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is enormous quantization often slashes the memory

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needed by like 75 percent And that smaller memory

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size, even with almost no noticeable change in

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output quality, drastically cuts the cost of

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running the model and lets powerful AI run on

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way less powerful hardware. Exactly. It's what

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makes it feasible to run impressive AI on your

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phone or on small sensors, edge devices. Whoa.

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Imagine scaling that efficiency across like...

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a billion queries a day globally. That's how

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this tech becomes truly everywhere. Wow. Okay.

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We've covered a lot of ground with these 10 concepts

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really fast. Let's try and weave it all together

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now. How do these pieces fit into a complete

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modern AI system? Okay. Let's trace a complex

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request. Input comes in, gets tokenized, the

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system needs context, it grabs internal knowledge

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using RG, and crucially, uses MCP to pull in

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real -time external data or trigger actions out

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in the world. Then the brain kicks in, the reasoning

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core. The transformer architecture chews on all

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that info. It might use chain of thought to ensure

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the steps are logical and transparent, or even

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advanced reasoning models to figure out the best

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strategy on the fly. And if there's images or

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audio involved, multimodal capabilities handle

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that. And this whole thing isn't just a one -off

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process. It's likely running as an intelligent,

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proactive AI agent. That agent is using sophisticated

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context engineering to manage the long conversation

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or task, remembering what happened before. Right.

00:12:12.289 --> 00:12:15.009
And its overall behavior, the way it responds

00:12:15.009 --> 00:12:17.649
and acts, has been fine -tuned using reinforcement

00:12:17.649 --> 00:12:20.029
learning to make sure it aligns with what users

00:12:20.029 --> 00:12:22.399
actually want and find helpful. And then finally,

00:12:22.519 --> 00:12:24.779
before it ever gets deployed to millions of users,

00:12:25.000 --> 00:12:27.480
that whole architecture has been squeezed for

00:12:27.480 --> 00:12:29.899
efficiency. Its core knowledge might have been

00:12:29.899 --> 00:12:32.320
compressed using distillation from a bigger model,

00:12:32.440 --> 00:12:35.039
and its final memory size shrunk drastically

00:12:35.039 --> 00:12:38.159
via quantization. Yeah, getting comfortable with

00:12:38.159 --> 00:12:40.019
this whole vocabulary, it gives you a massive

00:12:40.019 --> 00:12:42.240
strategic edge. You could design smarter systems,

00:12:42.299 --> 00:12:44.759
make better choices like, do I need a specialized

00:12:44.759 --> 00:12:48.240
SLM here or a big LM hooked up with MCP and RG

00:12:48.240 --> 00:12:50.559
and cut through the hype? Knowing this stuff

00:12:50.559 --> 00:12:53.659
is potential power, but using it, that's real

00:12:53.659 --> 00:12:56.980
power. You now have the language for this next

00:12:56.980 --> 00:12:59.950
wave of AI. So what should you do? Three things.

00:13:00.070 --> 00:13:02.990
First, start using this language. Put terms like

00:13:02.990 --> 00:13:05.789
agent, MCP, COT into your notes, your discussions,

00:13:05.889 --> 00:13:08.250
your project plans. Show you understand what's

00:13:08.250 --> 00:13:10.730
under the hood. Second, look at the AI tools

00:13:10.730 --> 00:13:13.429
you already use. If something acts proactively,

00:13:13.610 --> 00:13:16.649
ask. How does it remember things? Is that context

00:13:16.649 --> 00:13:18.769
engineering? Is it acting like an agent? Try

00:13:18.769 --> 00:13:21.720
to deconstruct it. Don't try to master everything

00:13:21.720 --> 00:13:24.299
at once. Pick maybe two or three concepts that

00:13:24.299 --> 00:13:26.860
feel most relevant to what you do. Maybe it's

00:13:26.860 --> 00:13:29.519
agents, RIG, and multimodal if you're building

00:13:29.519 --> 00:13:32.519
user -facing apps. Go deep on those. Yeah, because

00:13:32.519 --> 00:13:34.279
understanding these architectural choices means

00:13:34.279 --> 00:13:36.779
you're not just reacting to AI trends. You're

00:13:36.779 --> 00:13:39.559
actually equipped to lead the next phase of building

00:13:39.559 --> 00:13:42.220
genuinely smart, useful systems. Because really,

00:13:42.340 --> 00:13:44.480
these concepts show the future isn't just about

00:13:44.480 --> 00:13:46.899
making models bigger and bigger. It's about smart

00:13:46.899 --> 00:13:49.139
integration, making them efficient, helping them

00:13:49.139 --> 00:13:51.379
learn, continue. continuously, building systems

00:13:51.379 --> 00:13:53.259
that can actually connect, think and act for

00:13:53.259 --> 00:13:54.399
us in the real world.
