Bralak AI

Multi-Agent Systems

Specialist Agents, Working Under Orchestration.

Some problems are too broad for one agent. Bralak builds systems where specialised agents handle their own domain under an orchestrator that manages context, sequencing and control.

What this covers

  • Orchestration
  • Specialist agents
  • Context management
  • Shared memory

Integrates with
1 system types
Built on
LangGraph · MCP

What it is

Multi-Agent Systems, in plain language

A single agent given too many tools and too broad a goal degrades. It loses track of context, picks the wrong tool, and becomes difficult to evaluate because every failure has many possible causes.

Multi-agent architecture addresses this by narrowing scope. Each agent has one domain, a small tool set and a clear success condition. An orchestrator decomposes the request, routes work, manages shared context and assembles the result.

This is an architectural decision with real costs — more moving parts, more latency, more to observe. It is worth it when a task genuinely spans domains. It is not worth it as a default.

Capabilities

What the system does

  • Orchestration

    A supervising layer that decomposes goals, routes work and decides when the task is done

  • Specialist agents

    Narrow scope, small tool sets, individually evaluable

  • Context management

    Explicit control over what each agent sees, preventing context bloat and leakage

  • Shared memory

    A common state store with defined read and write boundaries per agent

  • Governance

    Per-agent permissions, action classification and escalation policy

  • Observability

    Distributed tracing across agent handoffs, so a failure is attributable to a step

How it works

The architecture, not the pitch

Orchestrator decomposing a request across research, sales and support agents, each with its own tools and knowledge, converging on one action.

  1. InputRequest
  2. ReasoningOrchestratorDecomposes and routes
  3. RetrievalSpecialist agentsResearch · sales · support
  4. SystemShared memoryDefined read/write boundaries
  5. DecisionAssemblyOne coherent result
  6. ActionWork completed
  7. Human escalationEscalationAny unresolved part goes to a person

The hard parts

The costs you take on by adding a second agent

This architecture has real overhead. It is worth paying for a specific reason, and it is the wrong default.

  1. 01

    Context is passed deliberately or it bloats

    Handing every agent the whole conversation is the easy implementation and the expensive one: cost climbs, latency climbs, precision falls. Each agent receives a defined slice — which also means one agent’s context cannot leak into another’s answer.

  2. 02

    Termination is a genuine design problem

    Agents that can call one another can loop. Every system gets step budgets, cycle detection and a defined terminal state, because finishing is not a property that emerges on its own.

  3. 03

    Failure has to be attributable to one agent

    When a five-agent run produces a wrong answer, the only useful question is which step was wrong. Each agent is evaluable against its own cases and traces span the handoffs; without that, debugging is re-running the whole chain and guessing.

  4. 04

    Handoff is a schema, not a conversation

    Agents exchange structured results with defined fields rather than prose the next agent has to re-interpret. Prose handoffs compound small misreadings into a confidently wrong final answer.

  5. 05

    Latency and cost accumulate per hop

    Each agent is at least one model call, usually several. A four-agent chain is not four times better; it is reliably four times slower. The split has to buy something specific — a genuinely different tool set, or a different evaluation standard — or it should be one agent.

  6. 06

    Shared state needs a single owner

    Once several agents read and write the same working memory, stale reads and concurrent updates become possible. One agent owns each piece of state, or writes go through the orchestrator.

Use cases

From trigger to business outcome

Every row reads the same way, because every system does: something happens, the model interprets it, an action lands in a real system, and the business result follows.

  • Account research and outreach

    Trigger
    A target account is added
    AI reasoning
    Research agent gathers public context; sales agent drafts positioning against your offering
    Action
    Produces a briefed outreach draft with sources for a human to approve
    Result
    Research stops being the reason outreach doesn’t happen
  • Complex support resolution

    Trigger
    A ticket spans billing, technical and account questions
    AI reasoning
    Orchestrator splits it; each specialist retrieves within its own domain
    Action
    Assembles one coherent response, escalating any part that is unresolved
    Result
    Multi-domain tickets stop bouncing between queues
  • Document processing at scale

    Trigger
    A batch of mixed documents arrives
    AI reasoning
    Classifier routes by type; specialist extractors handle each format
    Action
    Writes structured output with per-document confidence
    Result
    One pipeline handles document variety without a rule per format
  • Operational monitoring

    Trigger
    A threshold is breached
    AI reasoning
    Monitoring agent diagnoses; remediation agent identifies the documented fix
    Action
    Applies it, or raises an incident with the diagnosis attached
    Result
    Known issues stop waiting for someone to notice

Integrations

Built around the systems you already run

  • As per the constituent agents — CRM, ticketing, data warehouse, internal APIs

Technology

What this is built with

  • LangGraph
  • MCP
  • OpenAI
  • Anthropic
  • Python
  • FastAPI
  • PostgreSQL
  • Redis
  • OpenTelemetry

How we work

Five phases, each with a decision point

  1. InputDiscover
  2. ReasoningArchitect
  3. DecisionPrototype
  4. SystemProduction
  5. ActionOptimize

FAQ

Questions we are actually asked

When do we actually need multiple agents?

When a task genuinely spans domains with different tools and different knowledge. If one agent with a focused tool set can do the job, use one agent — multi-agent adds latency, cost and failure surface.

How do you stop agents talking in circles?

Explicit orchestration rather than free-form negotiation. The supervisor decides sequencing and termination; agents do not decide among themselves when the work is finished. Step limits and budgets apply per run.

How do you debug it?

Distributed tracing across handoffs. Each agent’s inputs, tool calls and outputs are recorded as spans, so a wrong outcome is traceable to the step that caused it.

Isn’t this slower?

Usually, yes — more steps take more time. Where latency matters we parallelise independent agents and cache retrieval. Where it does not, the accuracy gain is worth the seconds.

Can we start with one agent and grow into this?

That is the recommended path. Build one agent, find where its scope strains, then split along that seam. Starting multi-agent usually means guessing the boundaries wrong.

Your Next Intelligent System Starts Here.

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