Generated banner for RemembrallMCP
Generated logo for RemembrallMCP

RemembrallMCP

Memory serverOfficial RoboticForce, Inc. project

Created by RoboticForce, Inc.

Published in roboticforce/remembrallmcp. Publisher page

34 GitHub stars

What it is

Whole-codebase knowledge for AI coding agents. A field-aware code graph (functions, classes, methods, fields, and references across 8 languages) plus persistent memory. Rust core, Postgres + pgvector backend, MCP protocol.
— the description by RoboticForce, Inc.

AutoGineer overview, from the brain’s own files

RemembrallMCP provides AI coding agents with a persistent, structured understanding of a codebase that persists across sessions. By combining a field-aware dependency graph (built with tree-sitter) with persistent memory (using Postgres and pgvector), it allows agents to perform complex impact analysis and recall past decisions without re-exploring the codebase. It supports nine programming languages and integrates via the Model Context Protocol (MCP), significantly reducing token usage and latency for common coding tasks.

How it works

Memory model: Hybrid

AutoGineer overview, from the brain’s own files

The system uses a hybrid memory model. It parses source code into a dependency graph of functions, classes, methods, and fields, storing these in a PostgreSQL database with pgvector for semantic search. It provides an MCP server that exposes tools for agents to query this graph, perform impact analysis, and store or recall project-specific knowledge, decisions, and patterns.

Folders
FolderRoleFiles
.githubagent-config2
docsdocs5
scriptsscripts6
teststests2
benchmarksfolder5
cratesfolder58
test-fixturesfolder8

The agent writes

Requirements

Apps: Docker

Runtimes: Node.js, Python >=3.10, Rust

Databases: MongoDB, PostgreSQL

Works with: Claude Code, Claude apps, OpenAI Codex, GitHub Copilot, Cursor, Gemini CLI, Google Antigravity, Kiro, OpenCode, Amp, Roo Code, Cline, JetBrains Junie, Devin (ex-Windsurf)

Set it up

  1. This brain runs code automatically: 1 script. Review install.sh before opening the folder in Claude Code. No step below turns a hook on for you.

    • install.sh: sh install.sh
  2. Not scanned by AutoGineerThe author’s MCP configuration (.mcp.json) also starts it in a way AutoGineer does not offer. Read that file: AutoGineer did not scan that path; what it runs is listed under “This brain runs”. https://github.com/roboticforce/remembrallmcp/blob/77e6b2b99703ffaa18a900e12e829104561a144f/.mcp.json
  3. Not scanned by AutoGineerThe author’s MCP configuration (README.md) also starts it in a way AutoGineer does not offer. Read that file: AutoGineer did not scan that path; what it runs is listed under “This brain runs”. https://github.com/roboticforce/remembrallmcp/blob/77e6b2b99703ffaa18a900e12e829104561a144f/README.md
  4. Not scanned by AutoGineerThe author’s README also describes installing it with Docker Compose. Read its install section: AutoGineer did not scan that path. https://github.com/roboticforce/remembrallmcp/blob/77e6b2b99703ffaa18a900e12e829104561a144f/README.md#quick-start
  5. Not scanned by AutoGineerThe author’s README also describes installing it from a clone of its repository. Read its install section: AutoGineer did not scan that path. https://github.com/roboticforce/remembrallmcp/blob/77e6b2b99703ffaa18a900e12e829104561a144f/README.md#quick-start
  6. Not scanned by AutoGineerAutoGineer could not scan everything it runs. https://www.npmjs.com/package/remembrallmcp
  7. Created by RoboticForce, Inc.. Published in roboticforce/remembrallmcp. Licence: MIT License.

Usage

AutoGineer overview, from the brain’s own files

  • Connect to an MCP-compatible agent like Claude Code or Cursor
  • Index a project directory to build the code graph
  • Query the impact of code changes before implementation
  • Store and recall architectural decisions or middleware patterns
  • Ingest existing documentation or GitHub PR history into agent memory
“remembrall_impact("AuthMiddleware", direction="upstream")”
Returns a list of files that depend on the AuthMiddleware, allowing the agent to assess the impact of changes.
“remembrall_recall("authentication middleware patterns")”
Retrieves relevant memories from past sessions regarding authentication patterns.

Documentation by RoboticForce, Inc.

RemembrallMCP

Image: License: MIT Image: Crates.io Image: CI Image: Docker

Whole-codebase knowledge for AI coding agents. A field-aware code graph plus persistent memory, built on Rust, Postgres + pgvector, and exposed over MCP.

The problem: AI coding agents see a few pages out of the book each session. They grep, read, and re-derive how the codebase fits together from scratch - no map of what calls what, no way to know what breaks when something changes, and no memory of decisions made in past sessions.

The solution: RemembrallMCP gives the agent the whole codebase - a field-aware dependency graph (functions, classes, methods, fields, and the references between them) across 9 languages, plus persistent memory that survives between sessions.

1. Field-Aware Code Graph - A live map of your codebase built with tree-sitter. Functions, classes, methods, and data fields, plus call, import, defines, inherits, and field-reference relationships across 9 languages. Ask "what breaks if I change this?" - down to a single struct field - and get an answer in milliseconds, before the agent touches anything.

2. Persistent Memory - Decisions, patterns, and organizational knowledge that survive between sessions. Hybrid semantic + full-text search finds relevant context instantly.

remembrall_recall("authentication middleware patterns")
-> 3 relevant memories from past sessions

remembrall_index("/path/to/project", "myapp")
-> Builds dependency graph: 847 symbols, 1,203 relationships

remembrall_impact("AuthMiddleware", direction="upstream")
-> 12 files depend on AuthMiddleware (with confidence scores)

remembrall_impact("amount", direction="upstream")
-> methods that read self.amount, across the whole codebase

remembrall_store("Switched from JWT to session tokens because...")
-> Decision stored for future sessions
Why the code graph matters

Without RemembrallMCP, agents explore your codebase from scratch every session. Claude Code spawns Explore agents, Codex reads dozens of files, Cursor greps through directories - all burning tokens and time just to understand what calls what. A single "find all callers of this function" task can cost thousands of tokens across multiple tool calls.

With RemembrallMCP, that same query is a single remembrall_impact call that returns in <1ms with zero exploration tokens. The dependency graph is already built and waiting.

Without RemembrallMCPWith RemembrallMCP
"What calls UserService?"Agent greps, reads 8-15 files, spawns sub-agentsremembrall_impact - 1 call, <1ms
"Where is auth middleware defined?"Agent globs, reads matches, filtersremembrall_lookup_symbol - 1 call, <1ms
"Who references the amount field?"Agent greps for self.amount, misses ORM and cross-module usagesremembrall_impact - 1 call, <1ms
"What did we decide about caching?"Agent has no context, asks youremembrall_recall - 1 call, ~25ms
Typical exploration cost5,000-20,000 tokens per question~200 tokens (tool call + response)

The savings scale with codebase size. On a small project, an agent can grep and read its way through. On a 500-file monorepo, that exploration becomes the bottleneck - agents hit context limits, spawn multiple sub-agents, or miss cross-module dependencies entirely. RemembrallMCP's graph queries stay under 10ms regardless of project size because the structure is pre-indexed in Postgres, not discovered at runtime.

This is the difference between an agent that reads a few pages out of the book every time and one that already holds the whole codebase.

Benchmarks

RemembrallMCP is currently benchmarked on two surfaces:

  • Agent productivity on code tasks - Tested on pallets/click v8.1.7 (594 symbols, 1,589 relationships). Five identical coding tasks run with and without RemembrallMCP. Full report.

  • Memory recall quality - Local recall harness run against 31 ground-truth queries covering search quality, filtering, edge cases, ranking, and latency.

MetricWithout RemembrallMCPWith RemembrallMCPDelta
Total tool calls (5 tasks)1125-95.5%
Estimated tokens~56,000~1,000-98.2%
Avg tool calls per question22.41.0-95.5%

The savings compound on larger codebases. Click is ~90 files - on a 500+ file monorepo, agents without RemembrallMCP need proportionally more exploration calls, while graph queries stay under 10ms regardless of size.

Memory Recall MetricResult
Queries passed31 / 31
Recall@50.917
Precision@50.619
MRR0.908
p95 latency14ms

Run the benchmarks yourself: see benchmarks/ for the harness and task definitions.

For the broader benchmark strategy across memory retrieval, long-horizon memory, code graph correctness, and agent productivity, see docs/benchmark-roadmap.md.

Requirements

  • Docker (for the easiest setup) or PostgreSQL 16 with pgvector

  • For GitHub ingestion: GitHub CLI (gh) installed and authenticated

Quick Start

Option 1: Docker Compose (easiest)
git clone https://github.com/roboticforce/remembrallmcp.git
cd remembrallmcp

# Start Postgres, initialize the schema, download the embedding model,
# and run the MCP server. The remembrall container stays up after setup.
docker compose up -d

# Verify it's running (database connected, schema ready)
docker compose exec remembrall remembrall status

That's it. Postgres with pgvector, the schema, and the embedding model are all set up automatically. The database and model cache persist across restarts.

The remembrall container runs remembrall init (idempotent setup) followed by remembrall serve on startup, so it stays running and docker compose exec works for status, doctor, and other commands.

To connect an MCP client (Claude Code, Cursor, Codex) to the server, see Connect to your MCP client below.

Option 2: Download prebuilt binary
# macOS (Apple Silicon)
curl -fsSL https://github.com/roboticforce/remembrallmcp/releases/latest/download/remembrall-aarch64-apple-darwin.tar.gz | tar xz
sudo mv remembrall /usr/local/bin/

# Linux (x86_64)
curl -fsSL https://github.com/roboticforce/remembrallmcp/releases/latest/download/remembrall-x86_64-unknown-linux-gnu.tar.gz | tar xz
sudo mv remembrall /usr/local/bin/

# Initialize (sets up Postgres via Docker, creates schema, downloads model)
remembrall init
Option 3: Build from source (requires Rust 1.94+)
cargo build -p remembrall-server --release
# Binary is at target/release/remembrall

remembrall init
Connect to your MCP client
Codex

Codex uses the same MCP server definition format. Register the server as remembrall and point it at either the installed binary or your local release build.

If remembrall is installed in PATH:

{
  "mcpServers": {
    "remembrall": {
      "command": "remembrall"
    }
  }
}

If running from a local source checkout:

{
  "mcpServers": {
    "remembrall": {
      "command": "/path/to/remembrallmcp/target/release/remembrall",
      "env": {
        "DATABASE_URL": "postgres://postgres:postgres@localhost:5450/remembrall"
      }
    }
  }
}

If using Docker Compose from Codex:

{
  "mcpServers": {
    "remembrall": {
      "command": "docker",
      "args": ["compose", "-f", "/path/to/remembrallmcp/docker-compose.yml", "run", "--rm", "-T", "remembrall"]
    }
  }
}

Restart Codex after adding the server so it reconnects and loads the tools.

Claude Code, Cursor, and other MCP clients

Add to your project's .mcp.json (works with Claude Code, Cursor, and any MCP-compatible client).

If using a prebuilt binary or built from source:

{
  "mcpServers": {
    "remembrall": {
      "command": "remembrall"
    }
  }
}

If using Docker Compose:

{
  "mcpServers": {
    "remembrall": {
      "command": "docker",
      "args": ["compose", "-f", "/path/to/remembrallmcp/docker-compose.yml", "run", "--rm", "-T", "remembrall"]
    }
  }
}

Each invocation starts a fresh container, runs remembrall init (idempotent; its output goes to stderr so it never corrupts the MCP stream), then remembrall serve over stdio. The -T flag is required - it disables TTY allocation so JSON-RPC passes through cleanly. The db service starts automatically via depends_on.

If running from source (not installed to PATH):

{
  "mcpServers": {
    "remembrall": {
      "command": "/path/to/remembrallmcp/target/release/remembrall",
      "env": {
        "DATABASE_URL": "postgres://postgres:postgres@localhost:5450/remembrall"
      }
    }
  }
}

Restart your MCP client. All 9 tools will be available automatically.

Try it
> "Store a memory: We chose Postgres over MongoDB because our query patterns
   are relational. Type: decision, tags: database, architecture"

> "Recall what we know about database decisions"

> "Index this project and show me the impact of changing UserService"

MCP Tools

Memory
ToolDescription
remembrall_recallSearch memories - hybrid semantic + full-text with RRF fusion
remembrall_storeStore decisions, patterns, knowledge with vector embeddings
remembrall_updateUpdate an existing memory (content, summary, tags, or importance)
remembrall_deleteRemove a memory by UUID
remembrall_ingest_githubBulk-import merged PR descriptions from a GitHub repo
remembrall_ingest_docsScan a directory for markdown files and ingest them as memories
Code Intelligence
ToolDescription
remembrall_indexParse a project directory into a field-aware code graph (functions, classes, methods, and fields across 9 languages)
remembrall_impactBlast radius analysis - "what breaks if I change this?" Works on functions, classes, methods, and fields
remembrall_lookup_symbolFind where a function, class, method, or field is defined across the project

Supported Languages

LanguageExtensionsQuality Score
Python.pyA (94.1)
Java.javaA (92.6)
JavaScript.js, .jsxA (92.0)
Rust.rsA (91.0)
Go.goA (90.7)
Ruby.rbB (87.9)
TypeScript.ts, .tsxB (84.3)
Kotlin.kt, .ktsB (82.9)
C#.csA (96.8)

Scores measured against real open-source projects (Click, Gson, Axios, bat, Cobra, Sidekiq, Hono, Exposed, MediatR) using automated ground truth tests. The C# score is measured against MediatR 12.4.1 (69 symbols, 48 relationships, 9 impact queries, 10 edge cases): symbols, imports, and edge cases at 100%, with the gap coming from generic-interface inheritance (: IPipelineBehavior<TRequest, TResponse> resolves to a synthetic UUID instead of the class symbol) and a field-dispatch call misresolution. C# field-level references are validated separately by the field-capture fixture at 100%.

Cold Start

A new RemembrallMCP instance has no knowledge. Use the ingestion tools to bootstrap from existing project history.

From GitHub PR history:

> remembrall_ingest_github repo="myorg/myrepo" limit=100

Fetches merged PRs via gh, digests titles and bodies into memories, and tags them by project. PRs with less than 50 characters of body are skipped. Deduplication by content fingerprint prevents re-ingestion on repeat runs.

From markdown docs:

> remembrall_ingest_docs path="/path/to/project"

Walks the directory tree, finds all .md files, splits them by H2 section headers, and stores each section as a searchable memory. Skips node_modules, .git, target, and similar directories. Good for README, ARCHITECTURE, ADRs, and any written docs.

Run both once per project. After ingestion, remembrall_recall has immediate context.

Architecture

Source Code                   Organizational Knowledge
    |                                 |
    v                                 v
Tree-sitter Parsers           Ingestion Pipeline
(9 languages)                 (GitHub PRs, Markdown docs)
    |                                 |
    v                                 v
+--------------------------------------------------+
|              Postgres + pgvector                  |
|                                                   |
|  memories (text + embeddings + metadata)          |
|  symbols (functions, classes, methods, fields)    |
|  relationships (calls, imports, defines,          |
|                 inherits, references)             |
+--------------------------------------------------+
                          |
                    MCP Server (stdio)
                          |
              Any MCP-compatible AI agent
  • Parsing: tree-sitter (Rust bindings, no Python in the pipeline)

  • Embeddings: fastembed (all-MiniLM-L6-v2, 384-dim, in-process ONNX Runtime)

  • Search: Hybrid RRF (semantic cosine similarity + full-text tsvector)

  • Graph queries: Recursive CTEs with cycle detection and confidence decay

  • Transport: stdio via rmcp

CLI Commands

CommandDescription
remembrall initSet up database, schema, and embedding model
remembrall serveRun the MCP server (default when no subcommand given)
remembrall startStart the Docker database container
remembrall stopStop the Docker database container
remembrall statusShow memory count, symbol count, connection status
remembrall doctorCheck for common problems (Docker, pgvector, schema, model)
remembrall reset --forceDrop and recreate the schema (deletes all data)
remembrall versionPrint version and config path

Configuration

Config file: ~/.remembrall/config.toml (created by remembrall init)

Environment variables override config file values:

VariableDescription
REMEMBRALL_DATABASE_URL or DATABASE_URLPostgreSQL connection string
REMEMBRALL_SCHEMADatabase schema name (default: remembrall)

Project Structure

crates/
  remembrall-core/          # Library - parsers, memory store, graph store, embedder
  remembrall-server/        # MCP server + CLI binary
  remembrall-test-harness/  # Parser quality testing against ground truth
  remembrall-recall-test/   # Search quality testing
docs/                       # Architecture and test plan docs
test-fixtures/              # Ground truth TOML files for 9 languages
tests/                      # Recall test fixtures

Performance

OperationTime
Memory store7ms
Semantic search (HNSW)<1ms
Full-text search<1ms
Hybrid recall (end-to-end)~25ms
Impact analysis4-9ms
Symbol lookup<1ms
Index 89 Python files2.3s

License

MIT

docs/benchmark-roadmap.md

RemembrallMCP Benchmark Roadmap

Last updated: April 2026

Goal

Benchmark the product surface RemembrallMCP actually exposes:

  1. Persistent memory retrieval quality

  2. Long-horizon conversational memory behavior

  3. Code graph and impact-analysis correctness

  4. End-to-end agent productivity on real coding tasks

No single public benchmark covers all four. The benchmark strategy should therefore be a layered evaluation stack, not a search for one headline number.

Product Surface to Benchmark

SurfaceUser-facing claimPrimary tools
Memory retrievalAgents can recall relevant prior decisions, incidents, and patternsremembrall_recall, remembrall_store, remembrall_update, remembrall_delete
Long-term memoryAgents can handle updates, time, contradictions, and multi-session recallremembrall_recall, remembrall_store, remembrall_update
Code intelligenceAgents can answer "what breaks if I change this?" with high recallremembrall_index, remembrall_impact, remembrall_lookup_symbol
Agent accelerationRemembrall reduces exploration cost and improves task completionall tools together

Current Coverage

RemembrallMCP already has the beginnings of the right benchmark stack.

1. Agent productivity A/B benchmark
  • Location: benchmarks/

  • Measures: tool calls, estimated tokens, wall clock time, task accuracy

  • Strength: directly supports the "agents explore less" product claim

  • Gap: current task set is small and handcrafted

2. Parser and impact correctness harness
  • Location: crates/remembrall-test-harness/

  • Measures: symbol recall/precision, relationship recall/precision, import resolution, impact accuracy, edge cases

  • Strength: directly validates the code graph

  • Gap: focuses on parser correctness more than full MCP tool behavior

3. Memory recall quality harness
  • Location: crates/remembrall-recall-test/

  • Measures: Recall@5, Precision@5, MRR, latency, pass/fail thresholds

  • Strength: directly validates retrieval quality

  • Gap: limited coverage for temporal updates, stale memories, abstention, and multi-session synthesis

External Benchmarks: Fit Assessment

The right question is not "what is the industry standard benchmark for memory?" but "which public suites add signal on top of our product-specific harnesses?"

BenchmarkBest forFitWhy
SWE-bench VerifiedEnd-to-end coding task successHighBest external measure for whether Remembrall helps an agent finish real repo tasks
LongMemEvalLong-term conversational memoryHighStrong match for updates, temporal reasoning, multi-session memory, abstention
LoCoMoLong conversation memory and event QAMedium-highGood second option for long-horizon memory, broader conversational structure
BEIRGeneric IR retrieval qualityMediumUseful regression signal for retrieval, but not memory-specific and not code-specific
RepoBenchRepository-level code retrieval/completionMediumRelevant to repo context retrieval, less relevant to impact analysis and persistent memory
RAGASLLM app evaluation frameworkMedium-lowUseful as infrastructure, not as a benchmark target by itself

Recommendation

Use a four-layer benchmark stack:

  1. Keep custom evals as primary

    • They are the only benchmarks aligned to the full Remembrall product surface.

  2. Add SWE-bench Verified for external coding-agent validation

    • This is the strongest independent check on the productivity claim.

  3. Add one long-memory benchmark

    • Prefer LongMemEval.

    • Use LoCoMo only if we want a second conversational-memory view later.

  4. Optionally add a generic retrieval regression suite

    • Prefer a narrow BEIR slice instead of a large generic benchmark rollout.

What Each Benchmark Should Prove

A. Code graph correctness

Question: "Does the graph return the right symbols and dependency edges?"

Owner: crates/remembrall-test-harness

Success metrics:

  • Symbol recall >= 95% on small fixtures

  • Relationship recall >= 85% on small fixtures

  • Import resolution >= 90%

  • Impact query recall >= 95% for direct callers

  • No language below grade B on supported languages

Release gate:

  • Any drop >5 points on a language dimension triggers investigation

  • Any impact-analysis regression on must_find relationships blocks merge

A2. Field-level reference correctness

Question: "Does the graph capture data fields and resolve who reads them - the 'whole codebase' claim?"

Owner: crates/remembrall-test-harness with test-fixtures/field-capture.toml

Why it matters: Field-level capture is what makes the whole-codebase positioning truthful. ORM-heavy codebases live and die by "who references the amount field?" - a question symbol-only graphs cannot answer.

Success metrics:

  • Field symbol recall: every class/struct data field in the fixture is captured as a Field symbol with the right parent_symbol_id

  • Defines edge recall: class/struct -> field edges are all found

  • References edge recall/precision: self/receiver field reads (self.x, this.x, &self.x, Go s.X, Ruby @x) resolve to the enclosing type's field

  • No-fan-out correctness: ambiguous cross-file field names are dropped, not fanned out one-edge-per-candidate

  • Upstream impact on a field returns the methods that read it

Release gate:

  • Any regression on field References recall blocks merge

  • A new supported language must ship a field-capture fixture case before it is claimed as supported in the README

B. Memory retrieval quality

Question: "Does remembrall_recall return the right memories quickly?"

Owner: crates/remembrall-recall-test

Success metrics:

  • Aggregate Recall@5

  • Aggregate Precision@5

  • MRR

  • P50/P95 latency

  • False positive rate for "should abstain" queries

  • Filter correctness for memory_type, tags, and project

Release gate:

  • No regression in pass rate

  • No increase in false positives for abstention queries

  • P95 latency stays within a defined tolerance band

C. Long-horizon memory behavior

Question: "Does memory remain correct across sessions, updates, conflicting facts, and time?"

Owner: new harness under benchmarks/long_memory/ or a dedicated crate if execution logic grows

Preferred benchmark: LongMemEval

What to measure:

  • Information extraction

  • Multi-session reasoning

  • Temporal reasoning

  • Knowledge updates

  • Abstention

How to adapt it for Remembrall:

  • Run the benchmark through a thin adapter that maps session facts into remembrall_store

  • For update scenarios, explicitly use remembrall_update or store superseding memories and verify stale facts stop winning

  • Score both retrieval quality and final answer quality

Pass criteria for adoption:

  • Benchmark can run reproducibly from the repo

  • Results are stable enough across repeated runs to detect regressions

  • At least one metric maps directly to Remembrall behavior rather than only model behavior

D. End-to-end coding-agent productivity

Question: "Do agents finish real engineering tasks faster, cheaper, or more accurately with Remembrall?"

Owner: benchmarks/

Preferred benchmark: SWE-bench Verified plus current handcrafted A/B tasks

What to measure:

  • Task success rate

  • Cost proxy: tokens and tool calls

  • Latency / wall clock

  • Retrieval usage patterns

  • Failure modes: missed callers, wasted exploration, bad stale-memory retrieval

Why both are needed:

  • Current handcrafted tasks isolate the graph value proposition clearly

  • SWE-bench validates that those gains survive in messy, real-world task flows

Phased Rollout

Phase 0: Stabilize current benchmark story

Status: in progress

Work:

  • Keep benchmarks/ as the primary marketing benchmark

  • Keep parser and recall harnesses as release-safety benchmarks

  • Add this roadmap and align docs around the layered strategy

Exit criteria:

  • Benchmark surfaces are documented

  • Each existing harness has explicit ownership and intended use

Phase 1: Expand memory-recall harness for time and updates

Why first: This is the cheapest high-signal improvement because the harness already exists.

Work:

  • Add recall cases for superseded facts

  • Add cases for contradictory memories with timestamps

  • Add abstention cases where semantically related memories should not be returned

  • Add cases that require combining two related memories from different sessions

  • Add report fields for false-positive rate and stale-fact rate

Suggested new categories:

  • G: temporal updates

  • H: contradictions and supersession

  • I: abstention

  • J: multi-memory synthesis

Deliverables:

  • expanded tests/recall/ground_truth.toml

  • scorer updates for stale-fact and abstention failures

  • seed fixture additions

Phase 2: Add LongMemEval-inspired adapter

Why second: Only after the local harness tests the same failure modes.

Work:

  • Vendor or document a pinned LongMemEval version

  • Build a runner that converts benchmark sessions into memory writes

  • Evaluate two modes:

    • retrieval-only: inspect whether the right memory items are surfaced

    • answering: use a fixed model and prompt to answer benchmark questions from retrieved memories

  • Publish a concise result table in benchmarks/reports/

Important constraint:

Do not present this as "the" Remembrall benchmark. It covers the long-memory slice, not the code graph.

Phase 3: Add SWE-bench Verified A/B

Why third: Highest upside, but operationally heavier.

Work:

  • Pick a small pinned subset of SWE-bench Verified tasks first

  • Define a reproducible with/without-Remembrall protocol

  • Require fresh conversations and pre-indexed repos for the with arm

  • Record:

    • solve rate

    • time to first correct patch

    • total tool calls

    • total tokens

    • whether Remembrall tools were actually used

Start small:

  • 10 to 25 tasks

  • 2 or 3 representative repos

  • one supported language first, then expand

Success criteria:

  • measurable increase in solve rate or equivalent solve rate with materially lower tool cost

Phase 4: Optional generic retrieval baseline

Why optional: Useful for engineering discipline, weak for product storytelling.

Work:

  • Run a narrow BEIR slice against the memory search layer

  • Use it as a regression dashboard, not a homepage claim

Reporting Model

Keep benchmark reports split by audience.

Engineering reports

Purpose: catch regressions and guide implementation work

Include:

  • per-category scores

  • failure cases

  • latency percentiles

  • benchmark version and dataset pinning

Product and marketing reports

Purpose: support claims without overselling benchmark scope

Include:

  • A/B coding-agent savings from benchmarks/

  • parser quality summary by language

  • memory recall summary

  • external benchmark slices with tight scope labels

Avoid:

  • collapsing everything into one synthetic "benchmark score"

  • calling LongMemEval the product benchmark

  • claiming broad superiority from retrieval-only results

Repository Changes to Prioritize

Near term
  1. Expand remembrall-recall-test to cover temporal memory behavior

  2. Add a machine-readable benchmark manifest with benchmark name, version, scope, and owner

  3. Add report templates so results are comparable across runs

Mid term
  1. Add benchmarks/long_memory/README.md

  2. Add LongMemEval adapter and pinned instructions

  3. Add a small SWE-bench Verified subset harness

Nice to have
  1. Trend charts for benchmark regressions over time

  2. CI mode for lightweight subsets

  3. Benchmarks that isolate the value of remembrall_update and stale-memory suppression

Decision Summary

Use this stack:

  • Primary product benchmarks: existing custom A/B benchmark, parser harness, recall harness

  • Best external benchmark to add: SWE-bench Verified

  • Best long-memory benchmark to add: LongMemEval

  • Optional retrieval regression benchmark: BEIR slice

That keeps the benchmark program aligned to the actual product instead of drifting toward benchmark theater.

105 files · 93 not served here

Advantages

  • Reduces token usage by up to 98% by eliminating redundant codebase exploration. evidence: README.md
  • Provides sub-10ms impact analysis and symbol lookup regardless of project size. evidence: README.md

Limitations

  • Requires an external PostgreSQL 16 instance with pgvector extension. evidence: README.md
  • Initial indexing and ingestion are required to bootstrap knowledge for new projects. evidence: README.md

Security

Risk level: Medium risk

This brain runs

MCP servers (7)

  • .mcp.json (remembrall): /Users/steve/Dev/remembrallmcp/target/release/remembrall
  • README.md (remembrall): remembrall
  • README.md (remembrall): /path/to/remembrallmcp/target/release/remembrall
  • README.md (remembrall): docker compose -f /path/to/remembrallmcp/docker-compose.yml run --rm -T remembrall
  • README.md (remembrall): remembrall
  • README.md (remembrall): docker compose -f /path/to/remembrallmcp/docker-compose.yml run --rm -T remembrall
  • README.md (remembrall): /path/to/remembrallmcp/target/release/remembrall

Agent instructions that run or fetch something (17)

  • AGENTS.md: Start database: `docker start cocoindex-postgres`
  • AGENTS.md: Run server over stdio: `DATABASE_URL="postgres://postgres:[redacted]@localhost:5450/remembrall" ./target/release/remembrall`
  • AGENTS.md: Run validation spike: `DATABASE_URL="postgres://postgres:[redacted]@localhost:5450/remembrall" cargo run --bin spike3`
  • CLAUDE.md: docker start cocoindex-postgres
  • CLAUDE.md: # Run MCP server manually (stdio)
  • CLAUDE.md: # Run ground truth tests (validates everything works)
  • CLAUDE.md: DATABASE_URL="postgres://postgres:[redacted]@localhost:5450/remembrall" cargo run --bin spike3
  • CLAUDE.md: remembrall serve # Run MCP server (explicit form; no-arg is same)
  • CLAUDE.md: Model downloads on first run (~23 MB), or pre-downloaded by `remembrall init`.
  • CLAUDE.md: install.sh # curl installer script
  • CLAUDE.md: git checkout develop
  • CLAUDE.md: git checkout main
  • CLAUDE.md: git merge develop
  • CLAUDE.md: git push origin main · uses the network
  • CLAUDE.md: git tag v0.X.0
  • CLAUDE.md: git push origin v0.X.0 · uses the network
  • CLAUDE.md: git checkout develop

Install scripts (1)

  • install.sh: sh install.sh · uses the network
  • Medium risk: runs-instruction-instruction-network (CLAUDE.md:138)
  • Medium risk: runs-instruction-instruction-network (CLAUDE.md:142)
  • Medium risk: runs-install-script-network-variable-host (install.sh)
  • Medium risk: network-variable-host (install.sh:63)
  • Low risk: scripts-present (install.sh)

Attribution and licence

Created by
RoboticForce, Inc.
Declared authors
  • RobotICForce (declared in package.json)
  • RobotICForce (declared in pyproject.toml)
Publisher
RoboticForce, Inc. (Official RoboticForce, Inc. project)
Source
roboticforce/remembrallmcp · commit 77e6b2b
Licence
MIT License (files served here)
  • ATTRIBUTION.md (written by AutoGineer)
Synced

AutoGineer is not affiliated with or endorsed by RoboticForce, Inc..

Install from source

93 of its files are not served here, so there is no ZIP. roboticforce/remembrallmcp at 77e6b2b