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Analyze Financial Documents with LlamaIndex

Notebook using LlamaIndex to extract and compare insights across long SEC 10-K filings with a RAG pipeline.

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Updated last month
Source checked Aug 3, 2026
Version 1.0.0
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Why it matters

Automate the extraction and synthesis of insights from lengthy financial documents like 10-K forms, enabling faster and more informed financial analysis.

Outcomes

What it gets done

01

Load and index financial documents (e.g., 10-K forms) using LlamaIndex.

02

Perform simple question-answering over indexed financial data.

03

Conduct advanced compare-and-contrast analysis across multiple financial documents.

04

Leverage RAG systems for efficient information retrieval and insight generation.

Install

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Run in your project directory:

curl -fsSL https://spark.entire.vc/get/oai-financialdocumentanalysiswithllamaindex | bash

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Steps

Steps in the chain

01
Setup - Install and Import
02
Configure LLM Provider
03
Data Loading and Indexing
04
Build VectorStoreIndex
05
Configure QueryEngine
06
Simple QA Queries
07
Advanced QA - Compare and Contrast

Overview

Financial Document Analysis with LlamaIndex

A LlamaIndex notebook for financial analysis over SEC 10-K filings, indexing PDFs into a VectorStoreIndex and running both single-document QA and cross-document compare-and-contrast QA. Use to extract information or compare insights across long, jargon-heavy financial filings with minimal code. Not a fit for unstructured documents or for financial modeling beyond retrieval-augmented Q&A.

What it does

This notebook shows financial analysis over SEC 10-K annual-report filings using LlamaIndex, a data framework for LLM applications that gets a retrieval-augmented generation (RAG) system running in a few lines of code, while also offering a richer toolkit for advanced users - data ingestion and indexing, retrieval and re-ranking modules, and composable components for custom query engines. A 10-K is a company's annual report required by the SEC, and pulling information out of one is hard precisely because these filings typically run hundreds of pages full of domain-specific terminology that is slow for a layperson to digest.

The notebook loads and parses two 100+ page 10-K PDFs (Uber's and Lyft's 2021 filings) into per-page Document objects, builds an in-memory VectorStoreIndex over them by computing embeddings through the OpenAI API, and configures gpt-3.5-turbo-instruct as the LLM via a global ServiceContext that every subsequent LLM call uses.

From there it runs simple QA against a single index through a QueryEngine, adjusting similarity_top_k to control how many retrieved Node chunks feed each answer, then moves to advanced compare-and-contrast QA across both the Uber and Lyft filings using a SubQuestionQueryEngine - this breaks a complex cross-document question into simpler sub-questions, each executed against its own document's index before the results are combined.

When to use - and when NOT to

Use it to extract information and synthesize insight from long, jargon-heavy financial filings - single-document Q&A or cross-document compare-and-contrast analysis - with minimal code. It is not a fit for documents that aren't structured, text-extractable filings like 10-Ks, or for tasks beyond retrieval-augmented Q&A, such as numerical financial modeling.

Inputs and outputs

Input is the llama-index library installed, an OpenAI API key for both the LLM and embedding calls, and the source 10-K PDFs - Uber's and Lyft's 2021 filings in this notebook. Output is an in-memory VectorStoreIndex per document, plus query results: direct answers from a single-document QueryEngine, or synthesized compare-and-contrast answers from a SubQuestionQueryEngine spanning multiple documents. Both loading a 100+ page PDF and building its index can take a while - indexing in particular calls the OpenAI API to compute a vector embedding for every document chunk.

Integrations

Uses OpenAI for both the LLM (gpt-3.5-turbo-instruct) and embedding computation, wired through LlamaIndex's ServiceContext, VectorStoreIndex, QueryEngine, and SubQuestionQueryEngine components.

Who it's for

Financial analysts and developers who need to pull information out of long SEC filings quickly, including comparing multiple companies' filings side by side, without hand-building a RAG pipeline.

Source README

Financial Document Analysis with LlamaIndex

In this example notebook, we showcase how to perform financial analysis over 10-K documents with the LlamaIndex framework with just a few lines of code.

Notebook Outline

Introduction

LLamaIndex

LlamaIndex is a data framework for LLM applications.
You can get started with just a few lines of code and build a retrieval-augmented generation (RAG) system in minutes.
For more advanced users, LlamaIndex offers a rich toolkit for ingesting and indexing your data, modules for retrieval and re-ranking, and composable components for building custom query engines.

See full documentation for more details.

Financial Analysis over 10-K documents

A key part of a financial analyst's job is to extract information and synthesize insight from long financial documents.
A great example is the 10-K form - an annual report required by the U.S. Securities and Exchange Commission (SEC), that gives a comprehensive summary of a company's financial performance.
These documents typically run hundred of pages in length, and contain domain-specific terminology that makes it challenging for a layperson to digest quickly.

We showcase how LlamaIndex can support a financial analyst in quickly extracting information and synthesize insights across multiple documents with very little coding.

Setup

To begin, we need to install the llama-index library

Now, we import all modules used in this tutorial

Before we start, we can configure the LLM provider and model that will power our RAG system.
Here, we pick gpt-3.5-turbo-instruct from OpenAI.

We construct a ServiceContext and set it as the global default, so all subsequent operations that depends on LLM calls will use the model we configured here.

Data Loading and Indexing

Now, we load and parse 2 PDFs (one for Uber 10-K in 2021 and another for Lyft 10-k in 2021).
Under the hood, the PDFs are converted to plain text Document objects, separate by page.

Note: this operation might take a while to run, since each document is more than 100 pages.

Now, we can build an (in-memory) VectorStoreIndex over the documents that we've loaded.

Note: this operation might take a while to run, since it calls OpenAI API for computing vector embedding over document chunks.

Simple QA

Now we are ready to run some queries against our indices!
To do so, we first configure a QueryEngine, which just captures a set of configurations for how we want to query the underlying index.

For a VectorStoreIndex, the most common configuration to adjust is similarity_top_k which controls how many document chunks (which we call Node objects) are retrieved to use as context for answering our question.

Let's see some queries in action!

Advanced QA - Compare and Contrast

For more complex financial analysis, one often needs to reference multiple documents.

As a example, let's take a look at how to do compare-and-contrast queries over both Lyft and Uber financials.
For this, we build a SubQuestionQueryEngine, which breaks down a complex compare-and-contrast query, into simpler sub-questions to execute on respective sub query engine backed by individual indices.

Let's see these queries in action!

FAQ

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