Video summary
AI Fundamentals with Mihail Eric, Head of AI Monaco
Main summary
Key takeaways
Main ideas & lessons
- AI progress is not “new”: Modern AI—especially LLMs/agents—is the result of multiple waves over 10–15+ years, culminating in today’s capabilities.
Key historical inflection points
- Deep learning wave (approx. 2012–2016): Neural networks “reborn” due to improved training methods, GPU compute, and large datasets (notably ImageNet) enabling major gains in vision, speech, and translation.
- Transformer wave (around 2017): The Transformer architecture (from “Attention Is All You Need”) enabled modern LLM backbones via next-token prediction trained at scale on text.
- LLM product wave (around 2022): ChatGPT popularized large language models through an effective product interface and post-training + RLHF (reinforcement learning from human feedback).
- Reasoning / agent wave (around 2024): “Reasoning models” (e.g., OpenAI o1) enabled more complex multi-step behavior and helped form the foundation for agents, aided by ideas like test-time compute and verifiable rewards / test-time RL.
Modern AI “model recipe” (from neural nets to useful agents)
Systems typically follow this progression:
- Pre-training → next-token prediction on web-scale corpora.
- Post-training (supervised fine-tuning) → learn task-aligned input/output behavior from examples.
- Alignment → incorporate human preference data to match what humans want.
- RL / reasoning RL with agentic environments → train models to perform sequences of actions and improve via rewards from controlled environments.
Agent architecture is more than the LLM
- An agent = LLM + instructions + tools + an execution loop/harness.
- The harness orchestrates tool use, skills, and context assembly to achieve the user’s goal.
- Skills are packaged procedures (often prompt-based), such as a
SKILL.mdfile defining behavior and required tool usage.
Business value patterns
- Agentic AI value is often highest when paired with domain workflows—i.e., “vertical” applications (sales, coding, legal, customer support).
- Repeated playbook:
- capture workflows,
- codify them into an agent/harness,
- connect them to the model(s),
- deliver measurable outcomes.
New business metrics & pricing models
- Tokens become a central metric for cost/complexity/speed (“token maxing”).
- Pricing evolves from:
- seat-based SaaS
- → usage/token-based
- → outcome-based pricing (charge for completed results).
Other AI modalities beyond text
- Visual generation (diffusion + transformers)
- Audio generation (transformers conditioned on rich speech inputs; output decoded to waveforms)
- Robotics (vision-language-action models; data + cost bottlenecks, with early progress)
Infrastructure is a major bottleneck and opportunity
- “Picks and shovels” layers include:
- data providers
- RL environments/data
- neoclouds (AI-optimized compute)
- inference providers for low-latency serving
- The discussion includes open-weight vs closed-weight models, and why companies invest in open-weight (customization, speed/cost potential, avoiding monopolies), despite a current performance gap.
Open problems
- Model vs harness: where the real gains come from (model improvements vs workflow codification).
- Memory / continual learning: how agents learn from past interactions correctly.
- Security, misinformation, accountability for agentic systems (including cross-system “tunneling” risks).
- Evals/verifications: needing better benchmarks and RL environments to know when agents succeed.
- Energy/data-center scale-up: training/serving demands could require massive electricity growth and trillions in infrastructure spending.
GTM and entrepreneurship framing
- Emphasizes an “age of the builder”: non-technical/non-CS people can still build value via domain expertise and workflow-specific systems.
- Mentions forward-deployed engineering (FDE): embedded teams close to customers to learn workflows and improve products.
Methodologies / instructions (detailed bullets)
1) Modern AI / agent “model recipe” (training pipeline)
Step 1: Pre-training
- Input: web-scale text corpora (e.g., Wikipedia, books, “Common Crawl”)
- Objective: next-token prediction
- Learn to predict the next token from prior tokens.
Step 2: Post-training (Supervised Fine-Tuning, SFT)
- Input/Output: example pairs for the target task (prompt → desired completion/output)
- Goal: mimic correct behavior (e.g., produce an investment memo style output)
Step 3: Post-training (Alignment)
- Add “preference” signals so outputs match human goals.
- Mechanism: human preference comparisons (conceptually similar to RLHF).
- Result: outputs become more appropriate to user intent and audience.
Step 4: RL / Reasoning RL with agentic environments
- Create agentic environments where an agent can:
- take actions,
- observe outcomes,
- earn rewards defined by the system designer.
- Typical environment behaviors:
- long-horizon tasks (multiple steps),
- tool use (e.g., web research / databases / document actions),
- iterative refinement toward task completion.
2) Agent design “building blocks”
- User goal: prompt/instruction to start the task.
- Harness (or orchestration layer) that manages execution:
- tool calls (e.g., search, code execution, plotting, integrations),
- system prompt (behavior directives, safety/style constraints, model instructions),
- skills (reusable procedures/prompted behaviors packaged for invocation),
- context engineering (assemble the right combination of user instructions, skills, and prior context),
- model execution loop (LLM “intelligence layer”).
Tools + skills + harness coordination
- The harness decides:
- when to call a skill,
- what tools to use,
- how to integrate results into the next model step.
Skill example pattern (as described)
- Skill stored as a text file (e.g.,
SKILL.md) - Contains:
- a description of behavior/persona,
- instructions for how to perform the procedure,
- tool expectations for that procedure.
3) Vertical agent application “business playbook”
-
Step A: Capture domain workflows
- Observe or collect real usage patterns in a domain (sales, legal, support, coding).
- Build a platform even before intelligence is perfect—focus on workflow capture.
-
Step B: Codify workflows into an agent harness
- Convert observed workflows into:
- tools,
- skills,
- prompts/system instructions,
- orchestration logic.
- Convert observed workflows into:
-
Step C: Attach the intelligence layer (LMs)
- Use LLM(s) to drive decisions, drafting, analysis, and multi-step work.
-
Step D: Deliver business outcomes
- Aim for measurable impact such as:
- ticket resolution,
- revenue workflows,
- legal task completion,
- coding task throughput.
- Aim for measurable impact such as:
-
Step E (implied): Iterate toward better ROI
- Improve harness/environment/data so agents reliably complete tasks end-to-end.
Speakers / sources featured (as mentioned)
Featured people
- Mihail Eric — Head of AI Monaco (main lecturer/speaker)
- Joyce — audience member (MBA2)
- Nir — audience member
- Esther — audience member
- Ahmed — audience member
- Host / Moderator — named only as [MODERATOR] (exact name not provided)
Referenced institutions / authors / organizations
- Fei-Fei Li — creator of the ImageNet dataset (Stanford professor)
- Google researchers (2017) — authors of “Attention Is All You Need”
- OpenAI — referenced for ChatGPT and o1 reasoning model
- Anthropic — referenced for models (e.g., “Claude” family) and “Reasoning models” competition
- NVIDIA — referenced in the context of GPU history/compute enabling deep learning
- Hugging Face — referenced for open-weight model ecosystem and a security anecdote
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