In this codelab, you'll gain a foundational understanding of the Solace Agent Mesh. You'll explore the architecture, key components, and benefits of the Solace Agent Mesh, learning how it enables scalable, event-driven communication between AI agents and services. The introduction covers the evolution of event-driven architectures and highlights real-world use cases where agent mesh technology can be applied.
By the end of this codelab, you'll be equipped to get started with Solace Agent Mesh, including learning the building blocks, installation prerequisites, running built-in agents, and connecting different types of agents. You'll understand how to develop custom agents, leverage plugins and tools, and build multi-agent systems that harness the power of event mesh and standardized protocols for robust, collaborative AI solutions.
Building effective agentic systems presents a complex challenge that extends far beyond simply deploying AI models. AI Agents are siloed systems that operate in isolation, and are unable to effectively communicate or share capabilities across organizational boundaries. By definition and design, Agents are inherently domain-specific, designed to excel in narrow use cases but struggling to collaborate or leverage expertise from other specialized agents, creating fragmented AI ecosystems that fail to realize their collective potential.
To make intelligent decisions and respond to dynamic conditions, agentic systems must rely on event-driven actions that flow into the organization. While solving the core AI challenge represents only 20% of the effort, the remaining 80% involves the much more complex task of connecting AI models to the disparate data sources, legacy systems, APIs, and organizational knowledge that exist across isolated silosβmaking data accessibility and integration the true bottleneck in delivering practical AI value
Solace Agent Mesh is a comprehensive open-source framework that empowers developers to build sophisticated, distributed AI systems. On a high level, Agent mesh provides developers with the following:
This codelab will help you understand how to leverage Solace Agent Mesh for your own AI applications, whether you're an AI enthusiast experimenting with new models or an enterprise developer building production systems.
For more information and a deep dive on the Solace Agent Mesh, you can check out this video series
Solace Agent Mesh represents a sophisticated enterprise-grade platform that orchestrates AI agents. At its core, the Orchestrator serves as the intelligent brain that decomposes complex tasks and routes them to specialized Agents built using the Agent Development Kit (ADK), while Gateways created with the Gateway Development Kit (GDK) provide secure multi-protocol entry points. The platform's foundation rests on the Solace Broker for enterprise messaging, complemented by essential Services including LLM integration, embeddings management, artifact storage, and conversation history tracking. This unified architecture creates a robust, enterprise-ready platform for deploying and managing AI agent ecosystems at scale.
The central messaging backbone that provides intelligent topic-based routing, fault-tolerant delivery, and horizontal scaling for all Agent-to-Agent (A2A) protocol communications across the entire system.
The Solace Event Broker serves as the central nervous system of the entire Solace Agent Mesh framework, providing:
External interface bridges that translate diverse protocols (HTTP, WebSocket, Slack RTM, Solace Event Mesh...etc) into standardized A2A messages while handling authentication, authorization, and session management for outside systems.
Important functionalities of gateways include:
A specialized agent that coordinates complex workflows. The main functionality of the orchestrator boils down to:
Specialized AI processing units built on Agent Development Kit that provide domain-specific intelligence, self-register for dynamic discovery, and access comprehensive tool ecosystems for complex task execution.
The universal runtime environment that hosts and manages the complete lifecycle of all system components while bridging Google ADK capabilities with Solace event infrastructure through YAML-driven configuration. Main capabilities include:
The foundational infrastructure layer providing multi-provider LLM access, extensible integrations for custom tools and APIs, persistent data storage, and cloud-native artifact management services. Solace Agent Mesh is built on a modular foundation with the following tools:
Solace Agent Mesh is versatile and can be applied to various domains. Here are some examples of where Agent Mesh could be very helpful
Agent orchestration through Solace Agent mesh excels in customer service systems that intelligently route inquiries to specialized agents based on intent and context, dramatically improving response times and customer satisfaction. The event-driven architecture allows service representatives to handle complex queries by delegating specialized aspects to purpose-built AI agents while maintaining conversation continuity. Organizations deploy these systems to provide consistent, 24/7 customer support that combines human expertise with AI capabilities, reducing resolution times and improving service quality while scaling efficiently to handle peak demand periods without degradation in performance.
The event-driven foundation of Solace Agent Mesh makes it particularly effective for systems that automatically respond to system events with appropriate data analysis and reporting. These implementations listen for significant events across enterprise systems and trigger specialized analysis workflows based on event type, context, and criticality. Organizations deploy these capabilities for automated incident response, where security events trigger investigation workflows involving multiple specialized agents, or for business operations monitoring, where unusual patterns in operational metrics automatically initiate root cause analysis across multiple connected systems without requiring manual intervention.
The mesh architecture is effective for implementing sophisticated data processing pipelines where specialized agents transform, analyze, and enrich information from multiple sources. In these implementations, data flows seamlessly between agents that each contribute their unique processing capabilitiesβone agent might extract structured data from documents, another might classify content, while others translate or summarize findings. The event-driven backbone ensures resilient processing even when individual components experience delays or failures, making it ideal for enterprise environments processing mission-critical data that requires multiple specialized AI capabilities applied in sequence or parallel.
Document processing systems that extract text, summarize content, translate materials, and categorize informationβwith each specialized function handled by purpose-built agents working in orchestration is a big use-case for Solace Agent Mesh. These systems tackle complex document workflows where multiple AI capabilities must be coordinated, such as legal contract analysis, regulatory compliance review, or technical documentation management. The modular design allows organizations to easily enhance specific capabilities (like adding specialized extraction for particular document types) without disrupting the overall workflow, creating increasingly sophisticated document intelligence that evolves with organizational needs.
Solace Agent Mesh provides a robust foundation for implementing approval workflows where agents perform complex tasks while keeping humans in the loop for approvals, clarifications, or expert guidance via web interfaces, Slack, or other communication channels. These implementations balance automation efficiency with human oversight, ideal for scenarios requiring judgment calls or regulatory compliance. Organizations deploy these systems for contract approval workflows, content moderation processes, and complex decision support systems where AI provides recommendations but humans make final determinations, ensuring responsible AI deployment while still gaining significant efficiency improvements.
Organizations leverage the mesh to provide AI-powered decision support while maintaining human oversight for critical business determinations. These systems aggregate information from multiple sources, analyze options using specialized agents with different expertise domains, and present synthesized recommendations to human decision-makers. The event-driven design facilitates asynchronous information gathering and analysis that mirrors how human teams collaborate on complex decisions. Businesses implement these systems for investment analysis, strategic planning, risk assessment, and other scenarios where multiple factors must be considered from different perspectives to reach optimal conclusions.
Researchers and AI development teams utilize Solace Agent Mesh as a production-ready platform for exploring agent collaboration patterns, delegation strategies, and distributed AI problem-solving approaches. The system's comprehensive observability allows teams to analyze interaction patterns between agents, measure performance of different collaboration strategies, and identify bottlenecks or failure modes in complex multi-agent systems. Academic and commercial research groups implement these environments to develop new frameworks for agent cooperation, test emergent behaviors in multi-agent systems, and evaluate different approaches to task decomposition and delegation between specialized AI capabilities.
Data analysis teams implement agents that query databases, transform results, and generate visualizations based on natural language requests, making complex data accessible to non-technical users throughout organizations. These implementations translate ambiguous human queries into precise database operations, apply appropriate transformations to the retrieved data, and automatically select visualization approaches that best communicate the insights. Organizations deploy these systems to democratize data access, allowing business users to interact with complex data warehouses through conversational interfaces while maintaining governance controls through the mesh's robust permission system and generating consistent, properly formatted outputs regardless of query complexity.
Solace Agent Mesh demonstrates significant value in providing AI-powered integration between enterprise systems like Jira, Confluence, and other corporate knowledge bases and workflow tools. These implementations connect previously siloed information systems through intelligent agents that understand cross-system relationships, can translate between different data models, and maintain context across system boundaries. Organizations implement these integrations to reduce manual data transfer between systems, ensure consistency of information across platforms, and provide unified natural language interfaces to multiple backend systems, significantly improving knowledge worker productivity and information accuracy across the enterprise.
To install a specific version of python, we would recommend using brew
brew install python@3.12
MacOS/Linux
mkdir solace-agent-mesh-demo
cd solace-agent-mesh-demo
python3 -m venv venv
source venv/bin/activate
Windows
venv/Scripts/activate
After activating the virtual environment you can now simply just use python
which will use whatever python version used to initialize the virtual environment. To confirm, you can execute the following after activating your virtual environment
python --version
pip install solace-agent-mesh
You have two options to run and connect to a Solace Broker
Follow the steps defined in the getting started with Solace page
In the newly created directory, initialize a new instance of an agent mesh project
sam init --gui
From here, choose "Advanced Setup" to spin up an instance of the Agent Mesh that uses the Solace Broker as the communication backbone.
Choose a namespace for your project
Configure connection to the Solace Broker
Configure your LLM endpoint, API Key, and Model name
Configure your main orchestrator
Configure the WebUI Gateway
Review and Initialize the final configuration
π You have now successfully configured your Solace Agent Mesh environment! Now go back to terminal and continue with the next steps to run the Agent Mesh
After initializing your Solace Agent Mesh instance, you will find out the following files and directories has been created in your project folder
.
βββ .env
βββ .sam
βββ configs
β βββ agents
β β βββ main_orchestrator.yaml
β βββ gateways
β β βββ webui.yaml
β βββ logging_config.ini
β βββ shared_config.yaml
βββ requirements.txt
βββ src
βββ __init__.py
Here is a quick explanation on what this folder structure reflects:
.env
- Contains environment variables used for configuration flexibility across different environments. Such variables include API keys, LLM endpoints, and any secret needed and accessed by the agent runtime. Note that when solace agent mesh runs, it injects the contents of this file to the agent runtime thread..sam
- This directory contains framework-specific settings such as plugin configurationsconfig
- Houses all configuration YAML files for your SAM project, organized into several key components such as agents, gateways,logging settings, and common configuration settings shared across all agents and gateways (e.g. broker connection settings, model definitions, and service configurations)Key Configuration Files
main_orchestrator.yaml
This file configures the main orchestrator agent, which manages tasks and coordinates workflows between agents.
webui.yaml
This file configures the web user interface gateway, which provides a browser-based interface for interacting with the agent mesh.
Configuration Management
sam add agent
, sam add gateway
, or sam plugin add
Execute the following command to run Solace Agent Mesh
sam run
Access the WebUI Gateway through http://127.0.0.1:8000/
π VoilΓ ! You are up and running with the Solace Agent Mesh!
Now run the following prompt in the chat window
What are your capabilities?
and click the "Agent Workflow" icon
Explore the command flow
For the remaining of any prompts you execute to Solace Agent Mesh, you can always click this Agent Workflow icon to get a better understanding on what is happening
As mentioned earlier, Agents are specialized processing units built around ADK. They provide domain-specific knowledge and capabilities and can operate independently and be deployed separately.
In Solace Agent Mesh, Agents are configuration driven vial YAML files and there are multiple ways to develop an agent:
sam add agent
cli commandsam add agent --gui
Lets add a simple agent that converts any document to markdown leveraging the Solace Agent Mesh built-in tools.
configs/agents/
and name it markitdown.yaml
log:
stdout_log_level: INFO
log_file_level: DEBUG # Changed from INFO to DEBUG to capture ADK INFO logs
log_file: markitdown.log
# Shared SAM config
!include ../shared_config.yaml
apps:
# --- Markitdown Agent ---
- name: markitdown_agent_app
app_base_path: .
app_module: solace_agent_mesh.agent.sac.app
broker:
<<: *broker_connection
# --- App Level Config ---
app_config:
namespace: ${NAMESPACE}
supports_streaming: true
agent_name: "MarkitdownAgent"
display_name: "Markdown"
model: *multimodal_model # Or *planning_model, choose as appropriate
instruction: |
The MarkitdownAgent has the following capability:
* convert various file types (like PDF, DOCX, XLSX, HTML, CSV, PPTX, ZIP) to Markdown.
Any files you get that might be useful should be saved using create_artifact.
There is no need to provide a preview of the content in the response.
# --- Tools Definition ---
tools:
- tool_type: builtin
tool_name: "convert_file_to_markdown"
- tool_type: builtin-group
group_name: "artifact_management"
session_service:
type: "memory"
default_behavior: "PERSISTENT" # Or "RUN_BASED"
artifact_service:
type: "filesystem"
base_path: "/tmp/samv2"
artifact_scope: namespace
artifact_handling_mode: "reference"
enable_embed_resolution: true
enable_artifact_content_instruction: true
# --- Agent Card Definition ---
agent_card:
description: "An agent that converts various file types (like PDF, DOCX, XLSX, HTML, CSV, PPTX, ZIP) to Markdown format."
defaultInputModes: ["text", "file"] # Can take files as input
defaultOutputModes: ["text", "file"] # Outputs markdown file
skills:
- id: "convert_file_to_markdown"
name: "Markdown Converter"
description: "Converts various file types to Markdown format."
# --- Discovery & Communication ---
agent_card_publishing: { interval_seconds: 10 }
agent_discovery: { enabled: false }
inter_agent_communication:
allow_list: []
request_timeout_seconds: 60
sam run
The Solace Agent Mesh framework is controlled by YAML configuration files that define agents, gateways, and plugins, allowing for configuration-driven development without code changes.
Agent configuration files in Solace Agent Mesh are stored in the configs/agents/
directory. Each agent has its own YAML file that defines its behavior, capabilities, and integration settings.
A typical agent configuration YAML file includes these key sections:
Here's an example of a basic agent configuration YAML file:
log:
stdout_log_level: INFO
log_file_level: DEBUG # Changed from INFO to DEBUG to capture ADK INFO logs
log_file: name-agent.log
# Shared config
!include ../shared_config.yaml
apps:
- name: name-agent_app
app_base_path: .
app_module: solace_agent_mesh.agent.sac.app
broker:
<<: *broker_connection # References a broker connection defined in shared_config.yaml
app_config:
# Basic agent identity
namespace: ${namespace}
supports_streaming: true
agent_name: "example-agent"
display_name: "Example Agent"
# LLM model configuration
model: *general_model # References a model defined in shared_config.yaml
# Agent instructions (system prompt)
instruction: |
You are a helpful assistant specialized in answering questions about Solace Agent Mesh.
Always provide accurate and concise information.
# Tools configuration
tools:
- tool_type: python
component_module: "example_agent.tools"
component_base_path: .
function_name: "search_documentation"
tool_name: "search_docs"
tool_config:
search_depth: 3
# Built-in artifact tools for file operations
- tool_type: builtin-group
group_name: "artifact_management"
# Agent card definition (A2A specification)
agent_card:
description: "A helpful assistant for Solace Agent Mesh documentation"
defaultInputModes: ["text"]
defaultOutputModes: ["text"]
skills:
- id: "search_docs"
name: "Search Documentation"
description: "Searches through Solace Agent Mesh documentation"
Agent Cards are a critical component of the Agent-to-Agent (A2A) protocol specification. They serve as the "identity" and capability declaration for agents in a distributed system.
An Agent Card is a document (in JSON format) that describes an agent's:
Agent Cards enable agents to discover each other and understand how to interact appropriately. They are the foundation of the A2A (Agent-to-Agent) protocol that Solace Agent Mesh implements.
In the Solace Agent Mesh YAML configuration, the agent card is defined within the agent_card
section of the agent's configuration file. Internally, this is translated to a JSON document that follows the A2A specification.
The agent card includes:
description
: A human-readable description of the agent's purposedefaultInputModes
: Formats the agent accepts as input (e.g., "text", "image")defaultOutputModes
: Formats the agent produces as outputThe YAML-based configuration approach in Solace Agent Mesh provides several key benefits:
This configuration approach is particularly valuable for building complex multi-agent systems where agents need to discover and collaborate with each other based on their respective capabilities and skills.
Built-in tools in the Solace Agent Mesh are a comprehensive set of capabilities that enable agents to perform complex tasks, interact with various systems, and collaborate effectively within the mesh ecosystem. These tools extends the native capabilities offered by the Agent Development Kit (ADK). This of these tool as native functionalities that agents have access to like "functions" instead of building these from scratch.
The Solace Agent Mesh comes with a series of built-in tools natively to the platform. Each built-in tool name is defined in the tools
section of the application configuration for the agent in the yaml config file as follows
tools:
- tool_type: builtin
tool_name: "tool_name"
1. Artifact Management Tools
Artifact management tools handle the creation, storage, and retrieval of content and data objects across the agent ecosystem. They ensure artifacts such as documents, code, or structured data can be versioned, shared, and persistently stored while also supporting format conversion for interoperability. These tools make it easier for agents to generate and reuse artifacts seamlessly.
2. Data Analysis Tools
Data analysis tools allow agents to process, transform, and analyze data from a variety of sources. They support statistical analysis, natural language processing, and visualization generation, enabling agents to extract insights from both structured and unstructured data. With built-in query functions, these tools can also handle natural language queries against different data stores.
3. Web Tools
Web tools empower agents to interact directly with web-based resources and services. They support sending HTTP requests, retrieving and parsing content, and integrating with APIs while managing authentication methods like OAuth or API keys. In permitted cases, they also enable web scraping and structured response handling.
4. Peer Agent Delegation Tools
Peer agent delegation tools make collaboration among agents more efficient by supporting the distribution of tasks across specialized agents. They allow context to be shared, results to be aggregated, and coordination strategies to be applied, whether sequential, parallel, or conditional. These tools also enable agents to discover expertise and provide feedback to one another.
5. Developer Tools
Developer tools help streamline the development, deployment, and maintenance of the agent mesh. They include command-line utilities for management, debugging interfaces for real-time monitoring, and configuration management systems for precise control. Additionally, observability and testing frameworks provide insights into system health and validation of agent performance.
6. System Integration Tools
System integration tools connect agents with external backend systems and enterprise platforms. They provide connectors to databases, event streams, and message queues while also allowing controlled file system access. These tools extend the mesh's capabilities by integrating AI models and external enterprise applications into agent workflows.
Lets take an example for a web-request
agent
- name: web_agent_app
app_base_path: .
app_module: solace_agent_mesh.agent.sac.app
broker:
<<: *broker_connection
app_config:
namespace: ${NAMESPACE}
supports_streaming: true
agent_name: "WebAgent"
display_name: "Web Content"
model: *planning_model # Or another appropriate model from shared_config.yaml
instruction: |
You are an agent that can fetch content from web URLs using the 'web_request' tool.
You can make various types of HTTP requests (GET, POST, etc.) and include custom headers or a body.
The tool will return the fetched content (HTML converted to Markdown, other text types as is, or raw binary data).
You will then need to process this content based on the user's request.
Always save useful fetched content as an artifact.
tools:
- tool_type: builtin
tool_name: "web_request"
- tool_type: builtin-group
group_name: "artifact_management"
This yaml configuration of a Web Agent uses two types of tools: a built-in tool web_request
that handles web requests and a group of built-in tools artifact_management
that handles artifact access
Plugins serve as the backbone of the Solace Agent Mesh extensible architecture, providing a structured way to package, distribute, and incorporate new features into any SAM deployment. They are modular Python packages that extend the agent mesh's capabilities through specialized components that integrate seamlessly with the A2A protocol.
To spin up the list of the core plugins offered by the Solace Agent Mesh, execute the following
sam plugin catalog
Solace Agent Mesh supports three primary categories of plugins, each serving different purposes within the ecosystem:
Agent Plugins These contain specialized agents with domain-specific capabilities. They extend the system's ability to perform specific tasks or interact with particular data sources or services. For example, an agent plugin might specialize in processing financial data or analyzing medical imagery.
Gateway Plugins These provide new interface types for external system integration, enabling SAM to connect with various user interfaces, APIs, or communication channels. Gateway plugins might add support for channels like Slack, Microsoft Teams, or custom web interfaces.
Custom Plugins These implement specialized integrations that don't fit neatly into the agent or gateway categories. Examples include connectors for specific enterprise systems, data transformation services, or security extensions.
The Solace Agent Mesh ecosystem encompasses both official and community-developed plugins:
These are developed and maintained by the Solace team, providing essential capabilities for common use cases. The official plugins are available in the Solace repository at https://github.com/solacecommunity/solace-agent-mesh-plugins.
Solace Agent Mesh plugins ecosystem also encourages community contributions through the plugin system. These plugins extend the platform in numerous ways and can be discovered through the same plugin catalog as official plugins. to learn more about the existing plugins, check the github repository https://github.com/solacecommunity/solace-agent-mesh-plugins
Add Registry
buttonhttps://github.com/solacecommunity/solace-agent-mesh-plugins
To learn more about plugins, the differences between plugins and agents, and how to create your first plugin check out the Solace Agent Mesh Plugins documentation
As mentioned earlier, the Solace Agent Mesh is an agent agnostic framework. Agents are YAML configuration driven and can be authored using
In this step, we are going to add an MCP agent using the graphical user interface.
From your terminal instance, execute this command from your terminal
sam add agent --gui
Let's go ahead and add an MCP agent that executes filesystem operations such as read/write, create files, get list of files, and searching directories. Learn more about this MCP agent from the Filesystem MCP Server found in the official list of open source MCP servers
Fill in the following information
Select the service. Note you can leave everything default here
Features is a list of A2A specific features that can extend the functionalities of your agent (in this example an MCP agent) to expose A2A features to it. Keep everything default here
In this step, you will have to define the list of tools and skills this agent has. As mentioned in a previous step, tools could be built-in from the Solace Agent Mesh or you can specify a list of tools that are exposed from an MCP serve.
Go ahead and click the Add Tool
button
You can see here there a list of different kind of tools to add. Go ahead and click on the MCP Tool
Under the Connection Parameters, add the following
{
"type": "stdio",
"command": "npx",
"args": ["-y", "@modelcontextprotocol/server-filesystem", "/tmp/samv2"]
}
Click the Add Tool
. Notice how this new agent now has two types of custom tools
Click Next
You are then prompted with the Agent Card dialog.
Add the following Agent Card Description
An agent that interacts with the local filesystem via MCP.
Leave everything else as the default. Click Next
.
π Click Save Agent & Finish
and you're done! You now have a custom MCP Agent configured.
This process created a yaml configuration file under configs/agents/file_system_agent.yaml
. I want to point to your attention to this section of the configuration
tools:
- group_name: artifact_management
tool_type: builtin-group
- connection_params:
args:
- -y
- '@modelcontextprotocol/server-filesystem'
- /tmp/samv2
command: npx
timeout: 30
type: stdio
tool_type: mcp
You can see here that this agent has two types of tools: the built-in tools and an MCP configuration.
The full yaml configuration for the agent should look like this
# Solace Agent Mesh Agent Configuration
log:
stdout_log_level: INFO
log_file_level: DEBUG
log_file: a2a_agent.log
!include ../shared_config.yaml
apps:
- name: "FileSystem__app"
app_base_path: .
app_module: solace_agent_mesh.agent.sac.app
broker:
<<: *broker_connection
app_config:
namespace: "${NAMESPACE}"
supports_streaming: true
agent_name: "FileSystem"
display_name: "File System Agent"
model: *general_model
instruction: |
You can interact with the local filesystem using MCP tools. Use the available tools to read, write, and manage files as requested.
tools:
- group_name: artifact_management
tool_type: builtin-group
- connection_params:
args:
- -y
- '@modelcontextprotocol/server-filesystem'
- /tmp/samv2
command: npx
timeout: 30
type: stdio
tool_type: mcp
session_service:
type: "sql"
default_behavior: "PERSISTENT"
database_url: "${FILE_SYSTEM_DATABASE_URL}"
artifact_service: *default_artifact_service
artifact_handling_mode: "reference"
enable_embed_resolution: true
enable_artifact_content_instruction: true
data_tools_config: *default_data_tools_config
# Agent Card Definition
agent_card:
description: |
An agent that interacts with the local filesystem via MCP.
defaultInputModes: [text]
defaultOutputModes: [text, file]
skills: []
# Discovery & Communication
agent_card_publishing:
interval_seconds: 10
agent_discovery:
enabled: true
inter_agent_communication:
allow_list: ["*"]
deny_list: []
request_timeout_seconds: 600
Now go ahead and run an instance of the solace agent mesh from your terminal in your root project directory
sam run
Navigate to the Agents tab and see the new agent in the list
Now that you have hte File Agent up and running, you can run any of the following prompts to see it in action
"List the files in the directory"
"Create a simple text file with some content"
"Read the contents of test.txt"
To learn more about MCP integrations with the Solace Agent mesh, refer to the MCP Integration section in the documentation
Now that you have a foundational understanding of Solace Agent Mesh and have deployed your first agent ecosystem, here are some recommended next steps to continue your journey:
Visit the Solace Agent Mesh Documentation for comprehensive guides, API references, and advanced concepts. The documentation provides in-depth information on:
sam add agent
Consider creating your own plugins to extend the functionality of Solace Agent Mesh:
sam plugin create
command to scaffold a new pluginAs you move towards production use cases:
Throughout this codelab, you've gained valuable insights into Solace Agent Mesh and its capabilities. Here are the key takeaways to remember:
Solace Agent Mesh represents a significant advancement in building enterprise-grade agentic systems that can collaborate effectively at scale. By combining the power of event-driven architecture with modern AI capabilities, it provides a robust foundation for building the next generation of intelligent applications.
As the ecosystem continues to evolve, stay connected with the community through the repositories and forums to leverage the collective knowledge and contribute to this growing platform.
Thanks for participating in this codelab! Let us know what you thought in the Solace Community Forum! If you found any issues along the way we'd appreciate it if you'd raise them by clicking the Report a mistake button at the bottom left of this codelab.