Mit der automatisierten Datenfluss-Engine von Domo wurden Hunderte von Stunden manueller Prozesse bei der Vorhersage der Zuschauerzahlen von Spielen eingespart.
Schau dir das Video an
What Are Multi-Agent Systems?
Artificial intelligence is evolving from single, self-contained models into ecosystems of intelligent agents that collaborate, negotiate, and adapt together. This shift has given rise to one of the most dynamic fields in AI today: multi-agent systems (MAS).
From coordinating self-driving cars to automating analytics pipelines, multi-agent systems represent a new way to model intelligence. One built not on a single AI doing everything, but on many specialized AIs working in concert.
This guide explores what multi-agent systems are, how they work, and why they’re shaping the future of artificial intelligence (especially in data-driven enterprises).
What is a multi-agent system?
A multi-agent system (MAS) is a network of autonomous entities (called agents) that interact within an environment to achieve individual or collective goals. Each agent perceives information, reasons about its objectives, and takes actions independently, yet its behavior contributes to the broader outcome of the system.
The power of a MAS lies in working together: Agents share knowledge, divide workloads, and adapt to one another’s decisions instantly. Together, they can solve complex problems that a single model couldn’t, such as optimizing global logistics, managing swarm robotics, or automating large-scale decisions.
The core components of multi-agent systems
Every MAS includes several foundational elements:
Agents
Autonomous entities capable of perceiving their environment, reasoning, and acting. Each may include:
- A perception module (sensing or data intake)
- A reasoning engine (goal prioritization or learning)
- An action interface (executing responses)
- A communication layer (interacting with other agents)
Environment
The shared space in which agents operate, whether a physical world, a digital platform, or a simulated ecosystem.
Interactions
Agents exchange data, messages, or resources. These interactions can be cooperative, competitive, or neutral depending on system design.
Organizational structure
MAS can be centralized (one coordinator), distributed (fully decentralized), or hybrid (some hierarchy for efficiency).
Types of multi-agent systems
Multi-agent systems can be organized in several ways depending on how their individual agents interact and align their goals. Understanding these structures is key to designing intelligent, efficient, and adaptable systems. Broadly, multi-agent systems fall into three categories: cooperative, competitive, and hybrid.
Cooperative systems
All agents share a common objective. Swarm drones or robotic warehouse fleets are typical examples.
Competitive systems
Agents pursue distinct or conflicting goals, such as financial trading bots or game-theory simulations.
Hybrid systems
Most real-world applications combine both internal cooperation and external competition or constraint.
Multi-agent systems in artificial intelligence
Blending MAS principles with artificial intelligence is transforming how systems learn, reason, and act. Instead of a single monolithic AI, organizations can deploy multiple intelligent agents—each specialized, autonomous, and context-aware.
How multi-agent AI systems work
In a multi-agent AI system, each agent performs a specific role within a broader process. For example:
- One agent ingests and cleans data
- Another analyzes and generates insights
- A third evaluates model accuracy
- A fourth governs compliance or ethical alignment
Agents communicate using APIs, shared memory, or natural-language protocols to exchange context and results. This modular approach mirrors a distributed team, with each expert AI contributing its strengths while coordinating toward a shared goal.
Because these systems are adaptive and distributed, they excel in complex environments where:
- Data is decentralized
- Real-time coordination is required
- Tasks benefit from specialization and parallelization
Core mechanisms of multi-agent AI systems
At the heart of every multi-agent AI system are mechanisms that allow agents to make decisions, exchange information, and adapt in real time without central control. They can work independently yet remain coordinated.
Autonomy gives each agent the freedom to act based on its own logic or learning model. Communication lets them share what they learn, reason collectively, and negotiate outcomes. Coordination keeps actions aligned toward shared or competing goals.
As agents learn from feedback, they evolve. When many interact, emergent behaviors arise, revealing new strategies and capabilities that were never explicitly programmed but evolve from interaction itself.
1. Autonomy
Agents act independently, using rule-based logic, reinforcement learning, or LLM-driven reasoning.
2. Communication
Agents share what they learn through structured data or natural-language prompts. Modern LLM-based agents can “converse” to delegate tasks, validate reasoning, and negotiate outcomes.
3. Coordination
Through scheduling, consensus algorithms, or multi-agent reinforcement learning (MARL), agents align their decisions dynamically.
4. Learning and adaptation
Each agent learns from feedback and adjusts behavior based on other agents’ actions, improving system performance over time.
5. Emergent behavior
When many agents interact, complex patterns emerge, such as spontaneous collaboration or problem-solving strategies not explicitly programmed by humans.
Applications of multi-agent systems
Multi-agent systems are rapidly transforming how industries operate by enabling distributed intelligence and real-time collaboration across complex environments. Instead of relying on a single centralized brain, these systems harness the collective capabilities of many autonomous agents, each responsible for a specific task or decision point.
From autonomous vehicles navigating shared roadways to swarm robots exploring disaster zones, MAS applications span physical, digital, and hybrid domains. They’re powering smarter energy grids, optimizing supply chains, managing trading portfolios, and increasingly orchestrating enterprise analytics workflows. Together, these systems demonstrate how agent collaboration can drive efficiency, adaptability, and innovation at scale.
1. Autonomous vehicles
Each car acts as an agent, exchanging data with others to avoid collisions and optimize traffic flow.
2. Swarm robotics
Hundreds of small robots coordinate autonomously for exploration, search and rescue, or industrial tasks.
3. Smart grids
MAS manage distributed energy systems, enabling each node (solar panel, battery, or generator) to optimize power usage collaboratively.
4. Financial trading
Independent trading agents react to market data in milliseconds, executing trades and managing portfolios competitively.
5. Supply chain and logistics
Agents represent manufacturers, carriers, and retailers, synchronizing production schedules, inventory, and transportation.
6. Business intelligence and analytics
In enterprise data ecosystems, MAS are emerging as orchestration layers for AI-driven analytics. Multiple agents can clean data, detect anomalies, generate dashboards, and deliver insights collaboratively, reducing latency and human intervention.
Advantages of multi-agent systems
Multi-agent systems offer a powerful framework for building intelligent, distributed solutions that can scale and adapt to changing environments. Because each agent operates autonomously yet contributes to a shared objective, the system as a whole becomes more flexible and resilient.
Adding agents enhances overall system capability without requiring redesign, while parallel execution boosts efficiency and speed. If one agent fails, others continue without pause, ensuring stability. These systems also enable deep specialization by allowing individual agents to focus on specific functions or data streams. The result is greater precision, faster response times, and stronger performance across diverse, evolving conditions.
- Scalability: Adding agents increases capability without re-architecting the system.
- Resilience: If one agent fails, others continue operating.
- Parallelism: Agents execute tasks simultaneously, accelerating throughput.
- Adaptability: Systems respond dynamically to change.
- Specialization: Each agent can master a niche function, improving precision and performance.
Challenges of multi-agent systems
Multi-agent systems face challenges such as complex coordination, heavy communication demands, and security risks when agents act on unreliable data. Their adaptive nature can produce unpredictable behaviors, requiring careful oversight. Strong governance is essential to maintain accountability, standardization, and trust as these distributed systems scale within enterprise and technical environments.
- Coordination complexity: Managing dependencies among numerous agents can become intricate.
- Communication overhead: High-volume messaging may strain resources.
- Security and trust: Autonomy introduces risk if agents share or act on corrupted data.
- Emergent unpredictability: Adaptive systems can develop unexpected behaviors requiring oversight.
- Governance: Standardizing interfaces and accountability is essential in enterprise contexts.
The future of multi-agent AI systems
The next evolution of AI lies in collaboration, not isolation. Multi-agent systems mark a shift from single, monolithic models to interconnected networks of specialized agents that reason, validate, and optimize together. This decentralized approach promises more transparent, auditable, and adaptive AI, capable of continuously learning and self-managing complex enterprise environments.
From monolithic to modular AI
Early AI systems performed all functions within a single model. Multi-agent architectures decentralize this, enabling modular design where each agent focuses on a specific aspect, such as reasoning, retrieval, validation, or optimization.
This modularity makes AI systems more transparent, explainable, and scalable, supporting enterprise needs for traceability and governance.
Collaborative reasoning among agents
Recent research shows that AI agents can debate, critique, and refine each other’s outputs—improving accuracy and reducing hallucination. For instance, a reasoning agent might generate an analysis that a validation agent reviews before publishing results. This peer-review dynamic brings human-like quality assurance into automated workflows.
Enterprise orchestration
In the enterprise, multi-agent AI opens the door to self-managing data ecosystems. Agents can continuously monitor metrics, detect anomalies, generate reports, and trigger automated actions, all while staying aligned with policy and compliance frameworks.
Governance, ethics, and control
As AI agents gain autonomy, maintaining human oversight is critical. Multi-agent ecosystems must include:
- Transparency: Agents must log decisions and data lineage.
- Accountability: Roles and permissions should define who or what can act.
- Bias monitoring: Independent audit agents can detect and flag potential bias.
- Security controls: Authentication and encryption protect inter-agent communication.
Ethical deployment depends on clear governance, ensuring that collective intelligence serves organizational goals without introducing risk.
Why multi-agent systems matter for business intelligence
The rise of multi-agent AI represents a fundamental evolution in how enterprises handle complexity. For data-driven organizations, it means:
- Real-time adaptability: Agents can detect changes in data or conditions and respond instantly.
- Cross-functional collaboration: Different AI agents represent different departments or workflows, enabling unified intelligence.
- Scalable insight generation: Multiple agents can analyze millions of data points simultaneously, providing near-instant answers.
- Reduced operational friction: Automation replaces manual coordination between teams or tools.
MAS architectures don’t just make AI smarter; they make businesses faster, leaner, and more responsive.
Why Domo
Building a multi-agent system from scratch requires more than intelligent models. It demands an ecosystem where data, logic, and orchestration naturally converge. That’s where Domo stands apart.
Domo’s cloud-native data experience platform already operates on principles similar to multi-system agents. It connects distributed data sources, encourages collaboration among AI components, and coordinates actions across the enterprise. Each Domo feature, whether AI agents, workflow automation, data governance, or real-time visualization, acts as a specialized agent within a unified ecosystem.
With Domo AI, organizations can design and deploy agentic workflows that bring multi-agent intelligence to business analytics:
- AI agents handle data preparation, generate insights, and send alerts automatically.
- Governance agents enforce compliance with policies and maintain data integrity.
- Integration agents connect third-party tools and cloud services into a single collaborative space.
This orchestration transforms static dashboards into living intelligence systems that learn, act, and adapt—without requiring teams to manually stitch models or data pipelines together.
Where traditional MAS research focuses on theory, Domo puts it to work it at scale, so business people can work together with AI safely and strategically. The result? A connected, explainable, and governed multi-agent ecosystem that extends enterprise intelligence beyond isolated models, turning distributed AI into coordinated, measurable outcomes. Contact Domo to learn more.
Key takeaways
Multi-agent systems mark the next evolution of artificial intelligence by shifting from solitary models to collaborative, goal-oriented networks of agents. They offer scalability, resilience, and adaptability suited to the complexity of modern enterprises.
And with Domo, the multi-agent future is no longer just theoretical—it’s operational. By connecting data, intelligence, and automation under one platform, Domo enables organizations to orchestrate intelligent agents that think together, act together, and drive value together.
Artificial intelligence is evolving from single, self-contained models into ecosystems of intelligent agents that collaborate, negotiate, and adapt together. This shift has given rise to one of the most dynamic fields in AI today: multi-agent systems (MAS).
From coordinating self-driving cars to automating analytics pipelines, multi-agent systems represent a new way to model intelligence. One built not on a single AI doing everything, but on many specialized AIs working in concert.
This guide explores what multi-agent systems are, how they work, and why they’re shaping the future of artificial intelligence (especially in data-driven enterprises).
What is a multi-agent system?
A multi-agent system (MAS) is a network of autonomous entities (called agents) that interact within an environment to achieve individual or collective goals. Each agent perceives information, reasons about its objectives, and takes actions independently, yet its behavior contributes to the broader outcome of the system.
The power of a MAS lies in working together: Agents share knowledge, divide workloads, and adapt to one another’s decisions instantly. Together, they can solve complex problems that a single model couldn’t, such as optimizing global logistics, managing swarm robotics, or automating large-scale decisions.
The core components of multi-agent systems
Every MAS includes several foundational elements:
Agents
Autonomous entities capable of perceiving their environment, reasoning, and acting. Each may include:
- A perception module (sensing or data intake)
- A reasoning engine (goal prioritization or learning)
- An action interface (executing responses)
- A communication layer (interacting with other agents)
Environment
The shared space in which agents operate, whether a physical world, a digital platform, or a simulated ecosystem.
Interactions
Agents exchange data, messages, or resources. These interactions can be cooperative, competitive, or neutral depending on system design.
Organizational structure
MAS can be centralized (one coordinator), distributed (fully decentralized), or hybrid (some hierarchy for efficiency).
Types of multi-agent systems
Multi-agent systems can be organized in several ways depending on how their individual agents interact and align their goals. Understanding these structures is key to designing intelligent, efficient, and adaptable systems. Broadly, multi-agent systems fall into three categories: cooperative, competitive, and hybrid.
Cooperative systems
All agents share a common objective. Swarm drones or robotic warehouse fleets are typical examples.
Competitive systems
Agents pursue distinct or conflicting goals, such as financial trading bots or game-theory simulations.
Hybrid systems
Most real-world applications combine both internal cooperation and external competition or constraint.
Multi-agent systems in artificial intelligence
Blending MAS principles with artificial intelligence is transforming how systems learn, reason, and act. Instead of a single monolithic AI, organizations can deploy multiple intelligent agents—each specialized, autonomous, and context-aware.
How multi-agent AI systems work
In a multi-agent AI system, each agent performs a specific role within a broader process. For example:
- One agent ingests and cleans data
- Another analyzes and generates insights
- A third evaluates model accuracy
- A fourth governs compliance or ethical alignment
Agents communicate using APIs, shared memory, or natural-language protocols to exchange context and results. This modular approach mirrors a distributed team, with each expert AI contributing its strengths while coordinating toward a shared goal.
Because these systems are adaptive and distributed, they excel in complex environments where:
- Data is decentralized
- Real-time coordination is required
- Tasks benefit from specialization and parallelization
Core mechanisms of multi-agent AI systems
At the heart of every multi-agent AI system are mechanisms that allow agents to make decisions, exchange information, and adapt in real time without central control. They can work independently yet remain coordinated.
Autonomy gives each agent the freedom to act based on its own logic or learning model. Communication lets them share what they learn, reason collectively, and negotiate outcomes. Coordination keeps actions aligned toward shared or competing goals.
As agents learn from feedback, they evolve. When many interact, emergent behaviors arise, revealing new strategies and capabilities that were never explicitly programmed but evolve from interaction itself.
1. Autonomy
Agents act independently, using rule-based logic, reinforcement learning, or LLM-driven reasoning.
2. Communication
Agents share what they learn through structured data or natural-language prompts. Modern LLM-based agents can “converse” to delegate tasks, validate reasoning, and negotiate outcomes.
3. Coordination
Through scheduling, consensus algorithms, or multi-agent reinforcement learning (MARL), agents align their decisions dynamically.
4. Learning and adaptation
Each agent learns from feedback and adjusts behavior based on other agents’ actions, improving system performance over time.
5. Emergent behavior
When many agents interact, complex patterns emerge, such as spontaneous collaboration or problem-solving strategies not explicitly programmed by humans.
Applications of multi-agent systems
Multi-agent systems are rapidly transforming how industries operate by enabling distributed intelligence and real-time collaboration across complex environments. Instead of relying on a single centralized brain, these systems harness the collective capabilities of many autonomous agents, each responsible for a specific task or decision point.
From autonomous vehicles navigating shared roadways to swarm robots exploring disaster zones, MAS applications span physical, digital, and hybrid domains. They’re powering smarter energy grids, optimizing supply chains, managing trading portfolios, and increasingly orchestrating enterprise analytics workflows. Together, these systems demonstrate how agent collaboration can drive efficiency, adaptability, and innovation at scale.
1. Autonomous vehicles
Each car acts as an agent, exchanging data with others to avoid collisions and optimize traffic flow.
2. Swarm robotics
Hundreds of small robots coordinate autonomously for exploration, search and rescue, or industrial tasks.
3. Smart grids
MAS manage distributed energy systems, enabling each node (solar panel, battery, or generator) to optimize power usage collaboratively.
4. Financial trading
Independent trading agents react to market data in milliseconds, executing trades and managing portfolios competitively.
5. Supply chain and logistics
Agents represent manufacturers, carriers, and retailers, synchronizing production schedules, inventory, and transportation.
6. Business intelligence and analytics
In enterprise data ecosystems, MAS are emerging as orchestration layers for AI-driven analytics. Multiple agents can clean data, detect anomalies, generate dashboards, and deliver insights collaboratively, reducing latency and human intervention.
Advantages of multi-agent systems
Multi-agent systems offer a powerful framework for building intelligent, distributed solutions that can scale and adapt to changing environments. Because each agent operates autonomously yet contributes to a shared objective, the system as a whole becomes more flexible and resilient.
Adding agents enhances overall system capability without requiring redesign, while parallel execution boosts efficiency and speed. If one agent fails, others continue without pause, ensuring stability. These systems also enable deep specialization by allowing individual agents to focus on specific functions or data streams. The result is greater precision, faster response times, and stronger performance across diverse, evolving conditions.
- Scalability: Adding agents increases capability without re-architecting the system.
- Resilience: If one agent fails, others continue operating.
- Parallelism: Agents execute tasks simultaneously, accelerating throughput.
- Adaptability: Systems respond dynamically to change.
- Specialization: Each agent can master a niche function, improving precision and performance.
Challenges of multi-agent systems
Multi-agent systems face challenges such as complex coordination, heavy communication demands, and security risks when agents act on unreliable data. Their adaptive nature can produce unpredictable behaviors, requiring careful oversight. Strong governance is essential to maintain accountability, standardization, and trust as these distributed systems scale within enterprise and technical environments.
- Coordination complexity: Managing dependencies among numerous agents can become intricate.
- Communication overhead: High-volume messaging may strain resources.
- Security and trust: Autonomy introduces risk if agents share or act on corrupted data.
- Emergent unpredictability: Adaptive systems can develop unexpected behaviors requiring oversight.
- Governance: Standardizing interfaces and accountability is essential in enterprise contexts.
The future of multi-agent AI systems
The next evolution of AI lies in collaboration, not isolation. Multi-agent systems mark a shift from single, monolithic models to interconnected networks of specialized agents that reason, validate, and optimize together. This decentralized approach promises more transparent, auditable, and adaptive AI, capable of continuously learning and self-managing complex enterprise environments.
From monolithic to modular AI
Early AI systems performed all functions within a single model. Multi-agent architectures decentralize this, enabling modular design where each agent focuses on a specific aspect, such as reasoning, retrieval, validation, or optimization.
This modularity makes AI systems more transparent, explainable, and scalable, supporting enterprise needs for traceability and governance.
Collaborative reasoning among agents
Recent research shows that AI agents can debate, critique, and refine each other’s outputs—improving accuracy and reducing hallucination. For instance, a reasoning agent might generate an analysis that a validation agent reviews before publishing results. This peer-review dynamic brings human-like quality assurance into automated workflows.
Enterprise orchestration
In the enterprise, multi-agent AI opens the door to self-managing data ecosystems. Agents can continuously monitor metrics, detect anomalies, generate reports, and trigger automated actions, all while staying aligned with policy and compliance frameworks.
Governance, ethics, and control
As AI agents gain autonomy, maintaining human oversight is critical. Multi-agent ecosystems must include:
- Transparency: Agents must log decisions and data lineage.
- Accountability: Roles and permissions should define who or what can act.
- Bias monitoring: Independent audit agents can detect and flag potential bias.
- Security controls: Authentication and encryption protect inter-agent communication.
Ethical deployment depends on clear governance, ensuring that collective intelligence serves organizational goals without introducing risk.
Why multi-agent systems matter for business intelligence
The rise of multi-agent AI represents a fundamental evolution in how enterprises handle complexity. For data-driven organizations, it means:
- Real-time adaptability: Agents can detect changes in data or conditions and respond instantly.
- Cross-functional collaboration: Different AI agents represent different departments or workflows, enabling unified intelligence.
- Scalable insight generation: Multiple agents can analyze millions of data points simultaneously, providing near-instant answers.
- Reduced operational friction: Automation replaces manual coordination between teams or tools.
MAS architectures don’t just make AI smarter; they make businesses faster, leaner, and more responsive.
Why Domo
Building a multi-agent system from scratch requires more than intelligent models. It demands an ecosystem where data, logic, and orchestration naturally converge. That’s where Domo stands apart.
Domo’s cloud-native data experience platform already operates on principles similar to multi-system agents. It connects distributed data sources, encourages collaboration among AI components, and coordinates actions across the enterprise. Each Domo feature, whether AI agents, workflow automation, data governance, or real-time visualization, acts as a specialized agent within a unified ecosystem.
With Domo AI, organizations can design and deploy agentic workflows that bring multi-agent intelligence to business analytics:
- AI agents handle data preparation, generate insights, and send alerts automatically.
- Governance agents enforce compliance with policies and maintain data integrity.
- Integration agents connect third-party tools and cloud services into a single collaborative space.
This orchestration transforms static dashboards into living intelligence systems that learn, act, and adapt—without requiring teams to manually stitch models or data pipelines together.
Where traditional MAS research focuses on theory, Domo puts it to work it at scale, so business people can work together with AI safely and strategically. The result? A connected, explainable, and governed multi-agent ecosystem that extends enterprise intelligence beyond isolated models, turning distributed AI into coordinated, measurable outcomes. Contact Domo to learn more.
Key takeaways
Multi-agent systems mark the next evolution of artificial intelligence by shifting from solitary models to collaborative, goal-oriented networks of agents. They offer scalability, resilience, and adaptability suited to the complexity of modern enterprises.
And with Domo, the multi-agent future is no longer just theoretical—it’s operational. By connecting data, intelligence, and automation under one platform, Domo enables organizations to orchestrate intelligent agents that think together, act together, and drive value together.
Table of contents
Try Domo for yourself.
Try free
