
Generative ai models create content across text, images, code, music, and video using transformer architectures, enabling human ai collaboration through prompt engineering and multimodal tools like GPT, Claude, and mistral.
Explore the transformer architecture that powers modern generative ai, from self-attention and encoder-decoder design to cross-attention, enabling fast, scalable language, code, and image models.
Explore the GPT, Claude, and Mistral families—the transformer-based pillars of modern LLMs—comparing performance, safety, openness, and multi-modal capabilities shaping hybrid, collaborative AI futures.
Master tokens, context windows, and temperature to shape AI reading, memory, and creativity, optimizing prompts, cost, and coherence across long conversations.
Adjust and balance temperature, top p, frequency and presence penalties, and token limits to control creativity, accuracy, and coherence in AI outputs across technical and creative tasks.
Explore how role prompting defines system, assistant, and developer roles to shape ai behavior, ensure consistency, and align reasoning with user intent and organizational goals.
Learn to harness zero-shot and few-shot prompting to guide AI responses, balancing efficiency, precision, and structured output through examples, instructions, and hybrid techniques.
Define and maintain style, tone, and instruction consistency to build a credible AI voice across content. Apply the four-block prompt framework—role, task, tone, format—and use templates for clear, repeatable guidance.
Master context management by using prompt compression and summarization to maintain continuity and alignment with goals, reduce token usage, and keep AI responses accurate, relevant, and coherent across long interactions.
Sharpen AI prompts through structured debugging and optimization, diagnosing ambiguity, overload, and under specification, then iterating with observe, diagnose, adjust, and retest to achieve precise, high-quality outputs.
Explore Claude three point X and its haiku, sonnet, and opus models, guided by constitutional AI to deliver fast, responsible enterprise reasoning, multi-document insights, and trust.
Explore Mistral's open weight, compact design for edge deployment and fast, cost-efficient AI. Emphasize openness, developer freedom, and modular architectures for reasoning, coding, and multilingual knowledge work.
Secure AI workflows with API key authentication, key rotation, environment separation, and least privilege, while managing rate limits with exponential backoff and robust error handling.
Learn how function calling turns language models into action oriented systems by issuing structured, machine readable JSON function calls to external tools and APIs, enabling real-time data, automation, and orchestration.
Define tool specs using structured JSON schema to connect natural language prompts with executable actions, specifying names, inputs, outputs, and enforcing safe, precise automation.
Master JSON schema validation to enforce a contract between language models and back-end functions, ensuring type safety, correct inputs, clear errors, and production-ready automations.
Master function arguments and dynamic inputs to turn natural language into precise, executable actions. Learn to differentiate static and dynamic arguments, ensure safe validation, and create context-aware, real-time LMS integrations.
Multifunction orchestration lets large language models plan and coordinate multiple functions, enabling end-to-end automation and autonomous task ownership through a six-stage life cycle with sequential and parallel patterns.
Learn to design resilient systems with structured error recovery and smart retries, using exponential backoff, selective retry, circuit breakers, and graceful degradation to maintain availability and trust.
Explore implicit versus explicit reasoning in large language models, balancing speed and efficiency with transparency and trust, and learn when to switch modes for high-stakes versus high-throughput tasks.
Explore hidden reasoning in AI, balancing safety, reliability, and interpretability through selective transparency and context-aware disclosure. Learn how final outputs stay accurate and safe while guarding internal logic.
Implement JSON mode to convert AI outputs into structured data using key-value pairs, nested objects, and strict syntax. Validate schemas to ensure reliability, interoperability, and seamless API integration.
Compare openai's response format with anthropic's json schema to reveal structured outputs. Highlight how adaptive reasoning vs strict conformance affects safety, validation, and enterprise reliability.
Implement robust key management and rate limiting to protect API access, using environment variables or secret vaults and applying token bucket, leaky bucket, fixed window, and sliding window strategies.
Orchestrate multiple models with a coordination layer that routes tasks, enables hybrid pipelines, and selects optimal models while combining insights for accuracy, speed, and cost efficiency.
Understand how query routing steers multi-modal AI requests through a routing layer, selecting the right models to optimize latency, cost, and accuracy.
Analyze sequential, parallel, and hybrid AI pipelines and their trade-offs in latency, accuracy, and cost. Discover adaptive orchestration that balances multi-model inference for real-time, scalable insights.
Orchestrate AI using Claude as planner, GPT as executor, and Mistral as formatter to produce strategic plans, detailed content, and polished outputs, demonstrating multi-modal collaboration for scalable, high-quality results.
Leverage model voting and cross verification to produce reliable ai outputs through independent perspectives, consensus selection, and collective validation that reduces bias and enhances trust.
Optimize AI pipelines by targeting the four major cost drivers—model invocation costs, data transfer and storage, compute latency, and verification overhead—through adaptive pipeline scaling and a tiered model hierarchy.
Explore how vector databases store information as embeddings to enable semantic search, contextual recall, and memory for copilots using platforms like Pinecone, FAISS, and Chroma.
Learn how retrieval augmented generation combines embeddings, a vector database, and a five-step pipeline to deliver grounded, up-to-date, source-backed AI answers.
Explore how hybrid search combines keyword precision with vector semantics to deliver context-aware, accurate retrieval across enterprise search and knowledge management systems.
Real-time APIs feed live weather, finance, and news into AI systems, keeping outputs accurate and timely through asynchronous calls, caching, and context-aware reasoning with Rag and embeddings.
Discover how human in the loop evaluation blends automation with human judgment to ensure safety, ethics, transparency, and accountability in AI, including reinforcement learning with human feedback.
Explore multi-layer safety guardrails, including input and output filters and monitoring, guiding constitutional AI. Apply harmlessness, helpfulness, honesty, fairness, and privacy within a living safety architecture.
“This course contains the use of artificial intelligence”
Step into the future of innovation with Generative AI Engineering: Build with OpenAI & Anthropic, a hands-on, lab-driven course designed to help you master the art and science of building real-world AI applications. Whether you’re a developer, data engineer, researcher, or AI enthusiast, this course equips you with the technical depth and practical experience to design, implement, and deploy intelligent systems powered by Large Language Models (LLMs) such as OpenAI’s GPT and Anthropic’s Claude.
You’ll begin by uncovering how LLMs think, reason, and generate, then dive into the engineering foundations that power them — prompt engineering, context management, embeddings, and fine-tuning. Through immersive interactive labs, you’ll experiment with APIs from OpenAI, Anthropic, and Mistral, learning to control temperature, tokens, and reasoning depth to craft accurate, reliable, and domain-specific responses.
Beyond theory, this course emphasizes real-world implementation through a full suite of 12 practical labs and 3 capstone projects:
Labs 1–7 cover prompt chaining, API orchestration, latency benchmarking, and performance optimization.
Labs 8–12 introduce advanced reasoning (Chain-of-Thought, self-reflection), safety guardrails, and deployment monitoring.
Projects 1–3 guide you in building a Travel Itinerary Copilot, a Code Review Assistant, and a Knowledge-Aware RAG Copilot with real-time tool integration.
You’ll also explore multi-model orchestration, cost-efficient hybrid pipelines, and secure deployment using frameworks like FastAPI, Flask, Streamlit, and React — transforming abstract AI capabilities into production-grade applications.
By the end of this course, you’ll possess a complete Generative AI engineering toolkit — spanning LLM design, evaluation, safety, and scaling — empowering you to turn innovative ideas into deployable, intelligent products.
Become a Generative AI Engineer who bridges imagination with implementation, building the next generation of smart, human-centered AI systems.