New York equity hedge fund · $1–5bn AUM

The research was there. The answers were hard to find.

The firm's knowledge lived across email, SharePoint, files and a research management system. We mapped the estate, tested the technology and designed one cited query layer across it.

Decision reached

Full build approved

The tested discovery became the specification for the client's Azure research data lake.

Discovery and technical testing
2–3 months
Source figures retained by selected extraction paths
99.9%
Requested research report ranked first
28 / 28
Evaluated answers returned with citations
22 / 22

An internal note or important attachment might sit only in one person's mailbox or SharePoint folder. When an analyst needed it, there was no central place to ask. People emailed around the firm to learn who had seen a report, saved an attachment or written a prior view.

The firm wanted an easy way to query that distributed knowledge as one research corpus, extract useful insights and move from every material claim back to its evidence.

Seven discovery sessions mapped how the team screened ideas, prepared for earnings, reviewed prior conclusions and shared research. The work connected each source to a real investment question before making any platform choice.

Inside the query layer

One question. Several forms of evidence.

The simple experience depended on a layered system that prepared the corpus once, then routed each question through the evidence paths it actually required.

Research ingestion and query flow

Distributed knowledge · prepared once · routed by question

Tested architectureRecency awareCitations retained

End-to-end pipeline

01Sources

Distributed knowledge

Start where the firm's research already lives.

Email

SharePoint

Research system

Shared files

02Pipeline

Prepare the corpus

01

Extract

Preserve tables and figures

02

Clean

Remove boilerplate and noise

03

Enrich

Generate metadata and entities

03 · Decision node

QUERY

ROUTER

Classify intent, apply permissions and prioritize current information.

04Evidence graph

Select the evidence paths

M

Metadata

R

Hybrid retrieval

G

Knowledge graph

Deterministic tools

05

Cited answer

Combine the relevant paths into one response while retaining the route to every supporting passage.

Current information prioritized
Related entities included
Claims linked to evidence

Measured quality gates

99.9%

Source figures retained

28 / 28

Requested report ranked first

44 / 44

Evaluated claims grounded

115

Evidence-backed relationships

Illustrative reconstruction of the tested architecture. The pipeline shows how sources are prepared, routed across several forms of evidence and returned as a cited response.

How a query was resolved

More than a search box over a folder.

Each layer addressed a different reason that a plausible research answer can still be incomplete, stale or wrong.

  1. Layer 01

    Clean and preserve

    Convert research into structured content while preserving tables and figures, then remove repeated disclaimers before they can dilute retrieval.

  2. Layer 02

    Generate metadata

    Enrich each item with company, ticker, author, date, document type, themes and an internal or external source flag.

  3. Layer 03

    Retrieve evidence

    Combine structured filters with semantic and keyword retrieval, keeping the supporting passages attached to the answer.

  4. Layer 04

    Traverse relationships

    Use a knowledge graph to surface suppliers, customers, competitors and partners that direct document search may miss.

  5. Layer 05

    Route the question

    Apply metadata, recency, retrieval, the graph and deterministic calculations according to what the analyst is actually asking.

Test before choosing

Access was useful only if the answer could be trusted.

Twelve document-extraction approaches were evaluated against a 17-document reference set containing dense financial tables. Some produced readable text while dropping or introducing figures. The selected paths retained 99.9% of source figures with no fabricated figures in the test set.

Three candidate search platforms then faced the same documents and 28 questions. The selected configuration returned the requested research provider's report first on all 28 questions, without naming or relying on vendor demonstrations.

A separate 22-question evaluation returned citations on every answer. All 44 claims assessed for groundedness were supported by retrieved evidence. A weak case involving internal notes was documented and carried into the build plan rather than being hidden in an average.

A smaller data problem

Store what becomes more valuable together. Fetch the rest when needed.

Hard-to-retrieve research, internal notes, email and the firm's research history belonged in a governed, searchable layer. Prices, filings, estimates and other accessible structured feeds could remain live, avoiding a second stale copy.

Sources with unresolved access or content rights remained conditional until tested and cleared. The architecture did not assume that a visible connector or existing licence permitted long-term retention.

Testing also exposed a capacity constraint before historical backfill began. The pilot tier supported the proof but would constrain the intended archive. The production recommendation corrected the sizing before that decision became expensive to reverse.

What changed

The client moved from a broad ambition to a tested full-build specification.

The client saw that relevant answers could be returned quickly from a broad research estate while noise was removed, current information was prioritized and supporting passages remained available for review. The tested proof sat within a wider estate of thousands of documents, messages and notes.

The fund decided to proceed with the full Azure research data lake. The discovery findings became the architecture, quality gates and implementation sequence for the next engagement.

The published measurements describe the evaluated proof-of-concept corpus. Investment use still requires source review.

Is valuable research trapped by person or system?

Start with the questions your team repeatedly asks, the places the evidence currently lives and the quality threshold an answer must meet. The first step is to prove the smallest research foundation worth building.