
We generate hedge fund trading ideas and validate them against the fund mandate, investment thesis, risk framework, and use agentic orchestration with RAG to deliver defensible, tradable recommendations.
Explore agentic architecture for a trading idea generator, using hub-and-spoke orchestration, deterministic workflows, structured tool use, sub-agents, and scratchpads to generate, validate thesis, and assess risk and ideas.
Explore context architecture for a trading idea generator and validator, detailing persistent storage of fund mandate, investment thesis, risk data, with sources, plus layered summarization and transparent conflict handling.
Learn how the RAG and retrieval architecture uses hybrid dense and sparse representations, atomic chunking, and metadata tagging to enable fast, targeted idea discovery and heuristic reranking.
Learn how to design production-grade observability and cost optimization for hedge fund architectures, using structured telemetry, the aheads framework, model selection, and token-efficient prompts to validate thesis and risk.
Explore Claude-based solution architecture for trade risk management and compliance. Learn how agentic orchestration, retrieval augmented generation (RAG), and validators monitor positions, enforce limits, and escalate breaches.
Explore agentic architecture for hedge funds with deterministic hub-and-spoke orchestration, sub-agents, tools, structured validation, and persistent scratchpads for robust risk workflows.
Practice context architecture for hedge funds by persisting key facts, managing uncertainty and conflicts, and summarizing at key junctures while preserving current exposures, active breaches, escalation status, and remediation actions.
Explore how RAG and retrieval architecture optimize trade risk management and compliance through hybrid retrieval, atomic chunking, and metadata-driven ranking of limits, breaches, and remediation.
Explore production-grade observability and cost strategies, including structured metrics, the aheads framework, model selection, and high-frequency monitoring with cost-conscious output trimming.
COMMON SOLUTION ARCHITECTURES
This short course/presentation showcases some general patterns, for production architectures, extracted from enterprise implementations, with clients, of Claude-based solutions.
We'll cover production-grade solution patterns, with Claude, for some key use cases:
A;
For each use case, we will analyze five key components:
The overview. The use case, required goals and success criteria, general architecture snapshot (with agentic and/or local workflows, tools, skills, key contextual information, validation methods, and telemetry metics), as well as the top failure modes;
Agentic orchestration patterns, OR local workflows. For agentic-based workflows, we'll cover sub-agents, specific orchestration, tools to use, which steps are sequential/parallel/multi-pass, pre-tool use and post-tool use hooks, step prerequisites and structural validation, as well as alternative pathways with errors. For local workflows, we'll cover CLAUDE .md guidance (project-level and user-level), specific skills that can be used (with required arguments, permissions and whether to fork context or not), and specific workflow modalities (Plan Mode vs. Direct Execution, Batch API, etc);
Context management patterns. We'll cover which information can be summarized and which should be kept in persistent storage, how frequently to summarize the context and what may be lost, key outputs to validate and the specific shapes that hallucinations take, and more;
RAG and knowledge patterns. We'll cover key materials to include with RAG, whether to use dense/sparse/hybrid representation and its consequences, the recommended level of approximation in indexing (Approximate Nearest Neighbors or ANN), key chunk fields and "chunk roles" to include, and how to optimize reranking based on metadata fields;
Observability and cost patterns. Key structural indicators to save, both in terms of workflows (workflows started, completed, with/without errors, etc) and RAG/context ones (when did we retrieve correctly, what type of bias may we have, blind spots, etc), optimizing inputs with few-shot examples and their characteristics, optimizing outputs by trimming unneeded tool outputs and using context forking, as well as what workflow steps to use low-power/medium-power models for, and how frequently to run the workflow;