RabbitMQ Implementation Built for Production, Not a Demo
The RabbitMQ deployment that works in staging is rarely the one that survives peak traffic, a node failure, and a security review. We design and build clusters against your actual throughput, failure tolerance, and compliance requirements — and hand over something your team can operate.
The only partner with direct RabbitMQ core team access
11 + senior RabbitMQ SMEs130 + enterprise customers26 + countries served15 min emergency SLA
Trusted for Mission-Critical RabbitMQ by Teams in Finance, Healthcare, Defense, Telecom, and More
Named by the RabbitMQ Core Team
The Featured Authorized Partner for RabbitMQ — named by the engineers who build it
AceMQ is the Featured Authorized Partner for RabbitMQ, named by the RabbitMQ Core Engineering Team — the people who write and maintain the broker. That recognition covers RabbitMQ support, licensing and professional services, and it makes AceMQ the only RabbitMQ partner with a direct line to the core team. When an escalation needs an answer that is not in the documentation, it does not stop at a support tier.
You do not have to take our word for it — RabbitMQ lists AceMQ on its own site.
RabbitMQ partner with a direct line to the Core Engineering Team
Support · Licensing · Services
the full scope the partner status covers
Below 72 cores
the only provider globally licensing commercial RabbitMQ under Broadcom's minimum
Is This You?
You probably need this if…
You're standing up RabbitMQ for the first time and don't want to learn the failure modes in production
A proof of concept works but nobody is confident putting real traffic through it
You need a documented HA and DR posture before a security or compliance review
Your team has deployed RabbitMQ but queue and exchange design was never really decided
You're deploying on Kubernetes and unsure whether to use the Cluster Operator or StatefulSets directly
You need multi-region or multi-datacenter messaging and don't know whether to federate, shovel, or cluster
An existing deployment grew organically and now nobody can explain the topology
You need TLS, vhost isolation, and least-privilege access configured properly rather than defaults
Outcomes
Where you are now, and where you end up
Concrete state changes, not deliverable counts. This is what actually differs about your RabbitMQ estate when the engagement closes.
Before
A single RabbitMQ node someone stood up, now carrying production traffic with no redundancy.
After
A properly sized cluster with quorum queues, tested node-failure behavior, and a documented capacity headroom figure.
Before
Exchange and queue design decided ad hoc by whichever team needed a queue that week.
After
A governed topology with naming conventions, routing design matched to actual message patterns, and policies applied as code.
Before
No answer for the auditor asking how messages are encrypted and who can access which vhost.
After
TLS on client and inter-node connections, vhost isolation per tenant or environment, least-privilege users, and documented access control.
Before
Broker problems discovered when users complain, because nothing is monitored.
After
Prometheus and Grafana with RabbitMQ-specific dashboards and alerts on the metrics that actually predict incidents, not just node liveness.
Before
Deployment knowledge held by one engineer and never written down.
After
Infrastructure as code, a written operational runbook, and a trained team that has rehearsed failure scenarios.
Scope
What's covered
Cluster Architecture
Node count and sizing, quorum queue member configuration, partition handling strategy, and the capacity headroom figure that tells you when to scale — decided against your throughput profile rather than a default.
Kubernetes & Cluster Operator
RabbitMQ Cluster Operator and Topology Operator deployment, PersistentVolumeClaim sizing and storage class selection, PodDisruptionBudget configuration, and network policy for inter-node Erlang distribution.
HA & Disaster Recovery
Clustering within a region, federation or shovel across regions, and an honest assessment of what each option costs you in latency and consistency. Multi-region messaging involves real trade-offs and we make them explicit.
Security Hardening
TLS for client and inter-node connections, certificate lifecycle including rotation, vhost isolation, least-privilege users and permissions, and secrets management integrated with your existing platform.
Observability
Prometheus metrics, Grafana dashboards tuned to RabbitMQ, and alerting on leading indicators — unacked growth, memory watermark approach, under-replicated quorum queues — rather than only on node death.
Infrastructure as Code
The whole deployment in version control via Operator manifests, Terraform, or Ansible, including topology as code so exchanges, queues, and policies are reproducible rather than clicked into the management UI.
The Engagement
How it actually runs
Every phase has a defined duration and a concrete artifact handed over at the end of it. You always know what stage you're in and what you've received.
Phase 11–2 weeks
Requirements & Sizing
We establish what the cluster actually needs to do — peak and sustained throughput, message sizes, durability requirements, acceptable failure modes, and the compliance constraints you have to satisfy. Most oversized RabbitMQ deployments come from guessing at this stage, and most outages come from under-specifying failure tolerance.
You receive
Documented throughput, durability, and availability requirements
Cluster sizing with the reasoning and headroom assumptions stated
Compliance and security constraint register
Environment and platform decision, with trade-offs explained
Phase 22–3 weeks
Architecture & Topology Design
We design the exchange and queue topology around your real messaging patterns, choose queue types deliberately, and define the HA and DR posture — clustering, federation, or shovel depending on what your latency and consistency requirements actually permit. Design decisions are written down with their reasoning so future teams understand why.
You receive
Exchange, queue, and routing design with naming conventions
Quorum vs. classic queue decisions with sizing per queue class
HA and DR topology including multi-region approach where needed
Security design: TLS, vhosts, users, permissions, and secrets handling
Phase 33–5 weeks
Build & Harden
We deploy the cluster as code — Kubernetes Cluster Operator, Terraform, or Ansible depending on your platform — with security hardening and observability built in rather than added afterwards. Then we deliberately break it: node failure, network partition, disk pressure, and rolling upgrade are all exercised before it carries traffic.
You receive
Deployed cluster with all configuration in version control
Prometheus and Grafana dashboards plus alert rules
Security hardening applied and verified
Failure scenario test results — node loss, partition, disk pressure
Phase 41–2 weeks
Handover & Enablement
We make sure your team can run it. That means a written runbook for the topology you now have, live walkthroughs of the common operational tasks, and rehearsing the failure scenarios with the people who will be on call rather than just documenting them.
You receive
Operational runbook specific to your deployment
Live handover and failure-scenario rehearsal with your on-call team
Capacity planning guidance and growth triggers
Optional transition into a 24/7 support contract
Customer Success
Real RabbitMQ Results
See how enterprises trust AceMQ for their most critical RabbitMQ workloads.
A single-region production cluster with standard security and observability requirements typically runs seven to twelve weeks end to end. Multi-region deployments, environments with heavy compliance requirements, or implementations that include application-side design work run longer. The build phase is rarely the constraint — requirements and architecture decisions usually are.
It depends on what your team already operates well. Kubernetes with the RabbitMQ Cluster Operator gives you declarative topology, automated failover handling, and easier rolling upgrades — but it adds a layer of failure modes involving storage classes, network policy, and pod scheduling that will bite a team without Kubernetes operational maturity. If your platform team already runs stateful workloads on Kubernetes confidently, that is usually the better path. If not, VMs are a legitimate answer and we will say so.
Quorum queues for anything requiring durability and failure tolerance, which is most production traffic. They are the strategic direction — classic mirrored queues are removed in RabbitMQ 4.x — and they have clearer failure semantics. The trade-offs are real though: quorum queues are more memory-sensitive, handle very long queues differently, and are not suited to transient or high-churn workloads. We decide per queue class rather than applying one answer across the estate.
Yes, and the first thing we will do is establish what you actually need, because the options differ significantly. Clustering across high-latency links is generally a mistake — RabbitMQ clustering assumes a low-latency network and partitions badly across regions. Federation and shovel are the appropriate tools for cross-region messaging, with different consistency and ordering characteristics. We design against your latency budget and consistency requirements rather than defaulting to one pattern.
Everything in version control. Depending on your platform that means Cluster Operator manifests, Terraform, or Ansible, and it includes topology as code so exchanges, queues, and policies are reproducible. A cluster that was clicked together in the management UI cannot be rebuilt reliably after an incident, which makes it a liability regardless of how well it is currently running.
That is the point of the handover phase, and we treat it as deliverable work rather than a closing formality. Your team gets a runbook written for the topology they actually have, live walkthroughs of routine operational tasks, and rehearsed failure scenarios — node loss, partition, disk pressure — with the people who will be on call. Many customers then move onto a support contract for the incidents that fall outside routine operation.
Yes. AceMQ is the Broadcom VMware Expert Advantage Partner of the Year for the Americas and implements both open-source RabbitMQ and Tanzu RabbitMQ. Tanzu adds commercial support, security patching commitments, and roadmap alignment that regulated environments frequently require. We can also advise on the licensing and entitlement side, which is often the deciding factor rather than the technology.
Build It Right the First Time
Tell us what you're building and what it has to survive. We'll design a RabbitMQ deployment sized for your real traffic — and make sure your team can actually run it.
Get in Touch
Talk to a RabbitMQ Expert
Send us a message and we'll follow up within one business day — or book a free 30-min consultation directly.