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AI & Machine Learning

Multi-Agent Systems Development

A single agent hits a complexity ceiling quickly. Masarrati designs and builds multi-agent systems where specialised agents collaborate under an orchestrator — one plans, others execute, a critic reviews, and an escalation path hands control to a human when confidence drops. We engineer the parts demos skip: inter-agent communication protocols, shared memory and state, token budget management, runaway-loop detection, and observability over every decision the system takes.

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What is Multi-Agent Systems Development?

Multi-agent systems development is the design and engineering of AI agent teams that collaborate on complex workflows — an orchestrator plans and delegates, specialised agents execute, and guardrails escalate to humans when needed. Masarrati builds these systems with typed inter-agent protocols, shared memory, token budgets and full decision tracing, then hands the platform over to your team.

Engineering Targets

Figures below are the benchmarks we design and test against on this type of build. They are targets, not a warranty — what your platform actually achieves depends on your data, scale and integration surface, and we agree the numbers that matter with you before work starts.

Typed
Inter-Agent Protocols
Traced
Every Decision Logged
Bounded
Token & Loop Budgets
2 wks
Sprint Cadence

Why This Matters

Most agent pilots fail between demo and production, and the gap is almost always orchestration: who decides, who verifies, what happens on failure, and what it costs at volume. Multi-agent architecture is how complex work gets decomposed into pieces small enough for each agent to do reliably — and how the whole system stays inspectable when it matters.

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FEATURES

What You Get

Capabilities

Orchestration Patterns

Supervisor, collaborative and pipeline topologies chosen per workflow, with clear ownership of every task and a defined arbiter when agents disagree.

Agent Communication

Structured message schemas between agents rather than free-form text, so handoffs are typed, validated and replayable when something goes wrong.

Memory & State

Short-term working memory, long-term stores and shared blackboards, with retention rules that keep context windows and costs under control.

Guardrails & Escalation

Confidence thresholds, action allow-lists, spend ceilings and human approval gates for irreversible operations, designed in from the first sprint.

Cost & Loop Control

Per-run token budgets, recursion depth limits and runaway-loop detection, because an unbounded agent team is an unbounded invoice.

Observability

Every plan, tool call and inter-agent message logged with a reasoning trace, so operators can replay and audit any decision the system made.

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PROCESS

Our Approach

How We Deliver

01

Workflow Decomposition

Break the target process into tasks with clear inputs, outputs and failure modes

02

Topology Design

Choose the orchestration pattern and define agent roles, boundaries and arbitration

03

Grounded Build

Implement against your real data and tools, evaluated on a scored task set

04

Harden & Handover

Add guardrails, budgets and observability, then transfer ownership with runbooks

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Real-World Applications

Use Cases

Financial services

agent team triaging compliance alerts — one classifies, one gathers evidence, one drafts the case for review

E-commerce

order-exception workflow where agents resolve stock, payment and delivery issues before a human sees the ticket

Security operations

enrichment agents correlating alerts across sources and proposing containment steps to an analyst

Back office

document intake team splitting extraction, validation and system-entry across specialised agents

Research

retrieval, synthesis and critique agents producing sourced briefs with a reviewer gate before publication

Technology Stack

PythonPythonLangChainLangChainOAOpenAIRedisRedisKafkaKafkaDockerDockerKubernetesKubernetes

Common Questions

Frequently Asked Questions

When does a multi-agent system beat a single agent?

When the workflow has distinct stages that need different skills, tools or verification — planning, execution and review, for example — or when one context window cannot hold everything the task requires. If a single well-tooled agent can finish the job reliably, we will say so: multi-agent architecture adds coordination cost, and it has to earn its place.

How do you stop agents looping or running up costs?

With hard limits enforced outside the model: per-run token budgets, recursion depth caps, wall-clock timeouts and runaway-loop detection that halts a workflow and pages a human. Spend and step counts are logged per run, so cost anomalies show up in monitoring rather than on the invoice.

How do agents in the system communicate with each other?

Through typed, validated message schemas rather than free-form text. Each handoff carries a defined structure — task, inputs, evidence, confidence — so a malformed handoff fails loudly at the boundary instead of silently corrupting downstream work, and every exchange is replayable during debugging.

What happens when the agents disagree or fail?

The topology defines an arbiter — usually the orchestrator or a critic agent — plus explicit failure routes: retry with narrowed scope, degrade to a simpler path, or escalate to a human with the full decision trace attached. Disagreement and failure are designed states, not exceptions.

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Ready to get started?

Let's Build Together

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