
Explore the evolution from haiku to Mythos, tracing how speed, balance, deep reasoning, and autonomy drive architectural choices, cost, latency, and real world system design.
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Explore frontier models and production models within a framework for smarter model selection, balancing capability, reliability, latency, and cost in hybrid ai architectures.
Explore dual-mode reasoning in artificial intelligence by contrasting fast thinking (System 1) with deep thinking (System 2), and learn how intelligent routing balances speed, cost, and accuracy for complex tasks.
Explore how AI evolves from stateless prompts to agentic systems that reason, plan, and act with tools and memory for autonomous, multi-step workflows.
Learn how multi-step reasoning chains transform single-step outputs into structured, sequential thinking that decomposes problems, validates steps, and integrates tools to plan and execute reliable actions.
Explore planning versus execution separation as a design pattern for reliable, scalable artificial intelligence systems, where think, plan, and execute remain distinct and machine-readable plans guide each step.
Define reliable artificial intelligence systems through structured outputs such as json, plans, and dags, ensuring deterministic schemas, validation, and seamless orchestration for automated pipelines.
Explore failure modes in reasoning, including hallucinations, missing steps, and context loss in multi-step chains, then learn strategies to build robust AI systems with validation and mitigation.
Explore how frontier AI advances from code synthesis to deep system understanding, highlighting multi-file reasoning, dependency tracking, and semantic insights for robust production code.
Master full code-based reasoning by treating a repository as a dynamic system, tracing dependencies, data flows, and cross-file interactions with targeted retrieval and vector databases like Face and Chroma.
Explore how refactoring, debugging, and optimization strengthen production-grade ai systems, using ai-assisted analytics and automation for cleaner code, faster performance, and scalable maintenance.
Explore SWE Bench-style workflows that guide AI agents to tackle real-world software engineering challenges by analyzing GitHub issues, building patches, and validating with full test suites.
Explore how ai defends by detecting and patching vulnerabilities while also showing how exploitation can occur, emphasizing authorized, guarded, and audited approaches to secure systems.
Apply secure coding patterns and security by design to build defensible AI software, using input validation, encryption, authentication, authorization, and secure dependency management.
Explore AI-driven threat modeling to scale and continuously secure enterprise systems by identifying assets, threats, vulnerabilities, and mitigations.
Apply a framework to manage dual-use risks in enterprise AI risk, security, and compliance. Implement guardrails, tool access controls, policy enforcement, and continuous monitoring to prevent misuse.
Adopt the planner-executor-reviewer pattern to build reliable, production-grade ai systems, breaking multi-step workflows into planner, executor, and reviewer roles with clear dependencies.
Explore tool usage and API calling to move AI from text generation to real-world actions by connecting to REST and GraphQL APIs, databases, and external services.
Explore memory-enabled ai systems using faiss and chroma for scalable vector retrieval, including short- and long-term memory, embeddings, and retrieval augmented generation for grounded, personalized interactions across sessions.
Master long-running workflows by coordinating multi-agent systems, preserving durable state, and orchestrating scalable automation with monitoring, retries, and resilient fault handling across tools and services.
Implement a defense-in-depth guardrail framework across prompt, tool, and output layers for enterprise ai. Ensure safety, reliability, and policy compliance through input validation, access control, and monitoring.
Explore human-in-the-loop systems that integrate human judgment into AI workflows to boost trust, safety, and accountability, with review points and approvals balancing automation.
Master policy enforcement to govern AI behavior across enterprise deployment, ensuring safety, compliance, and ethical fairness through traceable decisions and centralized governance.
Master observability for AI systems by implementing logs, traces, and cost tracking to enable fast debugging and auditable, reliable operations.
This course contains the use of artificial intelligence.
Claude Capybara Mythos Mastery: Build Frontier AI Systems is a hands-on, production-focused bootcamp designed to help you move beyond basic prompting and into building real agentic AI systems. This course is built around a simple idea: modern AI is no longer just about generating answers—it’s about designing systems that can reason, plan, act, evaluate, and improve over time.
Across 7 intensive days, you will learn how to work with Mythos-class models, a new generation of AI systems capable of dual-mode reasoning, advanced planning, and structured execution. You’ll start by understanding the evolution from Haiku → Sonnet → Opus → Mythos, and what separates frontier models from traditional production models. This foundation sets the stage for building systems that are not only intelligent, but also reliable and scalable.
The core of the course focuses on turning AI into a thinking engine. You will learn how to design multi-step reasoning chains, enforce planning vs execution separation, and generate structured outputs such as JSON plans and execution graphs. These patterns are critical for building systems that can operate in real-world environments, where ambiguity, failure modes, and incomplete data are the norm.
As you progress, you’ll move into frontier-level coding workflows, where AI is used not just for code generation, but for code understanding, debugging, refactoring, and system design. You will build a Code Review Agent and implement LLM-as-a-judge scoring to evaluate output quality—mirroring how modern AI engineering teams validate systems in production.
A major highlight of the course is Cybersecurity-Native AI, where you will design systems that can detect vulnerabilities, assess risks, and recommend secure fixes. This introduces the critical concept of dual-use AI, along with the controls required to safely deploy powerful models in enterprise environments.
The course then shifts into multi-agent orchestration, where you will build systems using the Planner → Executor → Critic pattern. You’ll integrate tools, memory (FAISS / Chroma patterns), and long-running workflows to create systems that behave like autonomous teams rather than single models.
To make these systems enterprise-ready, you’ll implement guardrails, policy enforcement, and human-in-the-loop approval workflows. You’ll also design full observability pipelines, including logging, tracing, and cost tracking, ensuring that every decision made by the system is transparent and auditable.
The final capstone brings everything together. You will build a production-grade frontier AI system such as an AI Security Analyst Agent, Autonomous Code Refactor System, or Enterprise Decision Agent. This system will include natural language to structured planning, multi-agent execution, memory integration, governance controls, and evaluation pipelines.
By the end of this course, you will not just understand AI—you will be able to design and deploy end-to-end agentic systems that are scalable, secure, and ready for real-world use. This is the shift from prompting models to building intelligent, governed AI systems.