{
"coordination_summary": {
"total_agents": 5,
"successful_tasks": 4,
"failed_tasks": 1,
"coordination_time": "2025-07-07T10:21:18.015182",
"target": "n8n intelligent task allocation workflows"
},
"task_results": [
{
"agent": "walnut",
"task": "Intelligent Task Allocation Algorithm Design",
"status": "completed",
"response": "",
"model": "starcoder2:15b",
"tokens_generated": 1,
"generation_time": 0.000458051,
"timestamp": "2025-07-07T10:16:17.327505"
},
{
"agent": "ironwood",
"task": "Backend APIs and Database Schema for Task Routing",
"status": "completed",
"response": " To tackle the task of implementing robust backend APIs and database schema for intelligent task routing and monitoring in a 25-person software company model using an n8n workflow framework, we need to follow several steps that cover API design, database schema creation, real-time task queue management, agent health monitoring, and webhook integration. Below is a detailed technical solution:\n\n### 1. REST APIs for Task Submission and Agent Management\n\n#### Design of Endpoints\nWe will define the following endpoints based on CRUD operations suitable for managing tasks and agents:\n\n- **POST /tasks**: To create a new task with details like title, description, assigned_agent (a reference to an agent), priority, etc.\n- **GET /tasks**: To list all tasks or filter them by various criteria like status, priority, assigned_agent, etc.\n- **PUT /tasks/{id}**: To update the status of a task or reassign it if needed.\n- **DELETE /tasks/{id}**: To delete a task from the system.\n\nFor managing agents:\n- **POST /agents**: To register a new agent with details like name, role, availability_status (online/offline), etc.\n- **GET /agents**: To list all agents or filter them by various criteria like role, status, performance metrics, etc.\n- **PUT /agents/{id}**: To update an agent\u2019s profile or availability.\n- **DELETE /agents/{id}**: To remove an agent from the system.\n\n#### Implementation\nUsing Node.js with Express for backend and MongoDB as the database:\n\n```javascript\nconst express = require('express');\nconst mongoose = require('mongoose');\nconst app = express();\napp.use(express.json());\n\n// Task Schema\nconst taskSchema = new mongoose.Schema({\n title: String,\n description: String,\n assigned_agent: { type: mongoose.Schema.Types.ObjectId, ref: 'Agent' },\n status: String, // e.g., pending, in progress, completed\n priority: Number,\n});\n\nconst Task = mongoose.model('Task', taskSchema);\n\n// Agent Schema\nconst agentSchema = new mongoose.Schema({\n name: String,\n role: String,\n availability_status: String, // e.g., online, offline\n});\n\nconst Agent = mongoose.model('Agent', agentSchema);\n\napp.post('/tasks', async (req, res) => {\n const task = new Task(req.body);\n await task.save();\n res.send(task);\n});\n\n// Define other routes similarly...\n\nmongoose.connect('mongodb://localhost:27017/taskRouter', { useNewUrlParser: true, useUnifiedTopology: true });\napp.listen(3000, () => console.log('Server running on port 3000'));\n```\n\n### 2. Database Schema with Indexes and Performance Optimization\n\n#### Schema Design\n- **Task Schema**: Includes fields for title, description, assigned_agent (reference to Agent), status, priority.\n- **Agent Schema**: Includes fields for name, role, availability_status.\n\nIndexes are crucial for performance optimization:\n- Create compound indexes on `assigned_agent` and `priority` in the Task model for quick filtering and sorting.\n- Use TTL indexes if tasks have a lifecycle that can be tracked (e.g., completed tasks could expire after 30 days).\n\n### 3. Task Queue Management System with Priority Handling\n\n#### Implementation\nTasks are managed based on their priority levels using a queue system:\n- High priority tasks should jump the queue for immediate processing.\n- Implement a priority queue data structure (e.g., heap or binary search tree) to manage this efficiently.\n\n### 4. Real-Time Monitoring APIs with Metrics Collection\n\n#### Endpoints\n- **GET /metrics**: To fetch performance metrics like task completion rates, agent productivity, etc.\n- **POST /webhooks/n8n**: For integrating with n8n workflows. This endpoint can be used to trigger or receive data from external n8n instances.\n\n### 5. Webhook Endpoints for Seamless n8n Integration\n\n#### Implementation\nWebhooks will be configured to send task status updates, agent availability changes, etc., directly to the n8n workflow engine:\n\n```javascript\napp.post('/webhooks/n8n', (req, res) => {\n // Logic to handle webhook data and trigger n8n workflows\n console.log('Received data from n8n:', req.body);\n res.sendStatus(200);\n});\n```\n\n### Conclusion\nThis solution provides a comprehensive approach to enhancing the automatic task allocation capabilities using backend APIs, database schema design, real-time monitoring, and webhook integration with n8n. Each component is designed considering scalability, performance, and ease of maintenance, ensuring seamless integration within the broader AI development framework.",
"model": "deepseek-coder-v2",
"tokens_generated": 1089,
"generation_time": 24.38733376,
"timestamp": "2025-07-07T10:16:41.587558"
},
{
"agent": "acacia",
"task": "n8n Workflow Deployment and Cluster Integration",
"status": "failed",
"error": "",
"timestamp": "2025-07-07T10:21:18.014989"
},
{
"agent": "rosewood",
"task": "Comprehensive Testing and Quality Assurance Workflows",
"status": "completed",
"response": "\nOkay, so I need to figure out how to develop comprehensive testing strategies for this n8n workflow system. Let me start by understanding the problem. The company is a 25-person software company building intelligent workflows for task allocation using AI agents in different roles. They already have some framework in place with various roles like Executive Leadership, Engineering Roles, Support & Business Roles, and Coordination & Management Roles.\n\nMy task is to create testing strategies that ensure this system works well. The requirements include automated testing suites, performance and load testing, quality metrics, integration testing for agent coordination, and monitoring/alerting systems.\n\nFirst, I should break down each requirement and think about how to approach them. Let's start with Automated Testing Suites. I know that unit tests are a good starting point because they test individual components. But since this is an AI workflow, maybe we need to look into how different parts interact. Maybe integration tests as well where different modules communicate.\n\nFor performance testing, the system needs to handle a certain number of tasks efficiently. So I might need to use tools like JMeter or Gatling to simulate multiple users or tasks and see if the system can scale without degrading performance. Load testing would check if the system can handle peak loads without crashing or slowing down too much.\n\nQuality metrics and success criteria are about having measurable standards. I should define what success looks like in terms of task completion time, accuracy, resource allocation, etc. Maybe set up dashboards to track these metrics over time so they can be monitored and improved.\n\nIntegration testing is crucial because the system likely interacts with other parts of the company, maybe external APIs or databases. We need to ensure that all components work together smoothly without causing errors or data loss.\n\nMonitoring and alerting are about keeping an eye on the system's health. Tools like Prometheus and Grafana can help monitor metrics, while something like Alertmanager can send notifications if something goes wrong. This is important because if tasks aren't being allocated correctly or there's a bottleneck, we need to know immediately so issues can be resolved quickly.\n\nNow, considering all this, I think about the existing framework. It has different roles with specific workflows. The testing should mirror these roles as much as possible in test cases. For example, simulating multiple agents coordinating tasks and ensuring that they work together without conflicts or inefficiencies.\n\nI also need to make sure that the tests can be automated and run on a continuous basis, maybe using CI/CD pipelines. This way, any changes in the code immediately trigger tests to check if everything still works as expected.\n\nFor performance testing, I should probably start by identifying key components that could be bottlenecks. Maybe the AI allocation algorithm or the task management system. Load testing will help determine how much traffic the system can handle before it struggles.\n\nIn terms of implementation guidance, I think about how to integrate these tools with the existing codebase. For automated testing, maybe using pytest for unit tests and Selenium for browser-based tests if there's a frontend involved. For performance testing, setting up a test environment that mimics real usage patterns.\n\nQuality metrics might involve tracking things like task completion time, success rate of assignments, error rates, etc. These can be visualized in dashboards so stakeholders can see trends over time.\n\nIntegration testing would require checking not just internal interactions but also external dependencies. Maybe using mocks or stubs for APIs that the system interacts with to simulate real-world conditions without actually connecting to external services.\n\nMonitoring and alerting will need to be set up from the start, maybe during the development phase, so that once the system is live, it can be monitored effectively. If there's a failure in task allocation, the system should notify the team immediately.\n\nI also need to consider edge cases. What happens if multiple agents are trying to handle the same task? How does the system prevent conflicts or ensure that tasks are distributed efficiently among different roles?\n\nAnother thought is about how AI models are trained and deployed in this system. If there's a model for task allocation, testing its accuracy under various scenarios would be important. Maybe using machine learning test cases or unit tests specific to the AI components.\n\nLastly, I think about resource utilization. The system should not only allocate tasks efficiently but also manage resources like CPU and memory usage on servers, which is why performance and load testing is essential.\n\nIn summary, my approach is to:\n\n1. Develop comprehensive automated test suites covering all workflow components.\n2. Implement performance testing using tools like JMeter or Gatling to check scalability and speed.\n3. Establish quality metrics by defining success criteria for task allocation, accuracy, and resource use.\n4. Ensure integration testing by verifying interactions with external systems and internal modules.\n5. Set up monitoring and alerting systems to maintain system health.\n\nI need to structure this into sections as per the original response but make sure it's detailed and covers all aspects without being too repetitive. Also, include code examples where possible to illustrate implementation steps.\n\nMaybe also think about how different testing phases should be integrated with each other. For example, unit tests first, then integration, followed by performance and load testing in a controlled environment before going live.\n\n\nTo address the comprehensive testing needs for the n8n workflow system, we will structure our approach into five key areas: Automated Testing Suites, Performance & Load Testing, Quality Metrics & Success Criteria, Integration Testing, and Monitoring & Alerting. Each area will be detailed with implementation strategies and code examples to ensure robustness and efficiency.\n\n### 1. Automated Testing Suites\n\n**Objective:** Implement a comprehensive testing framework using pytest for unit and integration tests, ensuring all workflow components are tested in an isolated environment.\n\n- **Unit Tests:** Utilize pytest to create tests for individual functions or modules within the AI workflow.\n- **Integration Tests:** Test interactions between different system components (e.g., role-based agents) using pytest fixtures.\n- **Code Examples:**\n ```python\n import pytest\n\n @pytest.fixture()\n def mock_agent():\n return {\"name\": \"AI Agent\", \"role\": \"Data Analyst\"}\n\n @pytest.fixture\n def test_task_allocation(mock_agent):\n # Test scenario where agent successfully allocates a task\n pass\n ```\n\n### 2. Performance & Load Testing\n\n**Objective:** Ensure the system can handle expected workloads and scale efficiently under stress using tools like JMeter or Gatling.\n\n- **Performance Tests:** Use JMeter to simulate multiple users accessing the system, testing response times and throughput.\n- **Load Tests:** Apply increasing loads to identify bottlenecks in AI task allocation algorithms.\n- **Code Example:**\n ```java\n import org.apache.jmeter.engine.util.ThreadGroup;\n\n // Performance test scenario using JMeter\n public class TaskAllocationPerformanceTest extends BaseTest {\n @Override\n protected void setUp() throws Exception {\n super.setUp();\n ThreadGroup threadGroup = new ThreadGroup(\"Performance Test\");\n threadGroup.setParallelExecution(true);\n }\n }\n ```\n\n### 3. Quality Metrics & Success Criteria\n\n**Objective:** Define and monitor measurable standards for task allocation success, including accuracy and resource utilization.\n\n- **Quality Metrics:** Track metrics such as task completion time, error rates, and resource usage.\n- **Success Criteria:** Establish thresholds (e.g., 95% task completion within X minutes).\n- **Code Example:**\n ```python\n from datetime import datetime\n\n # Dashboard example using Grafana\n def generate_metrics():\n return {\n \"task_completion_time\": datetime.now() - start_time,\n \"error_rate\": error_count / total_tasks,\n ...\n }\n ```\n\n### 4. Integration Testing\n\n**Objective:** Verify smooth interactions between system components and external dependencies.\n\n- **Integration Tests:** Use tools like SoapUI for API testing, ensuring compatibility with external services (e.g., databases).\n- **Code Example:**\n ```xml\n \n GET /tasks\n \n Status Code\n \n \n ```\n\n### 5. Monitoring & Alerting\n\n**Objective:** Implement a real-time monitoring system using Prometheus and Grafana, with alerts for critical issues.\n\n- **Monitoring Tools:** Use Prometheus to monitor metrics and Grafana for visualization.\n- **Alerting System:** Integrate Alertmanager for immediate notifications on failures or performance drops.\n- **Code Example:**\n ```yaml\n global:\n alertmanager_configs:\n - target: alertmanager-main\n severity: critical\n\n alerts:\n - name: task-allocation-failure\n labels:\n severity: high\n annotations:\n message: \"Critical failure in task allocation\"\n```\n\n### Implementation Guidance\n\n1. **CI/CD Integration:** Integrate testing into CI/CD pipelines to automate test runs post-code changes.\n2. **Simulate Real-World Conditions:** Use test environments that mimic real traffic and loads to prepare for production.\n3. **Edge Case Testing:** Identify edge scenarios, such as concurrent task allocations or system failures, and design tests around them.\n\n### Conclusion\n\nBy systematically applying these strategies, the n8n workflow system will be thoroughly tested, ensuring robustness, scalability, and reliability in task allocation.",
"model": "deepseek-r1:8b",
"tokens_generated": 1891,
"generation_time": 28.395639745,
"timestamp": "2025-07-07T10:16:45.541651"
},
{
"agent": "oak",
"task": "iOS/macOS Integration and Mobile Task Management",
"status": "completed",
"response": " To achieve iOS/macOS integration for mobile task management and monitoring within our AI-driven workflow system, I propose the following comprehensive solution:\n\n1. **Native iOS/macOS App Design and Architecture**\n\n For the native app, we'll use Swift for iOS development and SwiftUI for a modern, reactive, declarative UI framework. On macOS, we can leverage SwiftUI as well or alternatively adopt AppKit if there's a need to maintain a more traditional Mac interface. The app should provide seamless navigation between task monitoring, task submission, and notifications.\n\n Code Examples:\n - [SwiftUI Basics](https://developer.apple.com/documentation/swiftui)\n - [AppKit Programming Guide for macOS](https://developer.apple.com/library/arcwhoosh/documentation/General/Conceptual/DevPedia-CocoaCore/AppKitProgrammingGuideformacOS/AppKitProgrammingGuideformacOS.html)\n\n2. **API Integration for Real-Time Cluster Status**\n\n To fetch real-time cluster status and task data, we'll create an API using a framework like Vapor (Swift server framework) or ExpressJS (Node.js server framework). This API will be responsible for handling requests from the mobile app, querying the database, and returning JSON responses.\n\n Code Examples:\n - [Vapor Framework Documentation](https://docs.vapor.codes/)\n - [ExpressJS Documentation](https://expressjs.com/en/4x/api.html)\n\n3. **Implement Push Notifications for Task Completion**\n\n We can use Apple Push Notification service (APNs) for iOS and OneTimeNotifications or FCM for macOS to send push notifications when a task is completed. Implementing the APIs, handling registration, token management, and sending push notifications will be crucial for this step.\n\n Code Examples:\n - [Apple Push Notification Service](https://developer.apple.com/documentation/usernotifications/setting_up_a_remote_notification-_actionable_notification_workflow)\n - [FCM Documentation](https://firebase.google.com/docs/cloud-messaging/ios/client)\n\n4. **Design Mobile-Friendly Task Submission Interface**\n\n The task submission interface should be simple and intuitive, allowing users to select their role, provide details about the task, attach any necessary files or images, and submit it. To ensure cross-platform compatibility, we'll use SwiftUI for iOS and possibly React Native for both iOS and macOS.\n\n Code Examples:\n - [SwiftUI Forms](https://developer.apple.com/documentation/swiftui/forms)\n - [React Native Documentation](https://reactnative.dev/)\n\n5. **Apple Ecosystem Integration Features**\n\n To further enhance the app, consider integrating SiriKit for voice-based task submission, Wallet for securely storing credentials and accessing them within the app, or HealthKit to gather data like activity levels and sleep patterns. Additionally, implementing ARKit for visualizing tasks in a more immersive way could be an exciting feature.\n\n Code Examples:\n - [SiriKit](https://developer.apple.com/documentation/sirikit)\n - [Wallet](https://developer.apple.com/documentation/passkit)\n - [HealthKit](https://developer.apple.com/documentation/healthkit)\n - [ARKit](https://developer.apple.com/documentation/arkit)\n\nIn conclusion, by following these steps and creating a native iOS/macOS app that integrates with the existing framework, we can enhance automatic task allocation capabilities while providing an intuitive, cross-platform experience for our software company's team members.",
"model": "mistral:7b-instruct",
"tokens_generated": 887,
"generation_time": 174.112794446,
"timestamp": "2025-07-07T10:19:11.472945"
}
],
"agent_configuration": {
"walnut": {
"endpoint": "http://192.168.1.27:11434",
"model": "starcoder2:15b",
"specialty": "Senior Full-Stack Development & Architecture",
"capabilities": [
"workflow_design",
"frontend_architecture",
"complex_coordination"
]
},
"ironwood": {
"endpoint": "http://192.168.1.113:11434",
"model": "deepseek-coder-v2",
"specialty": "Backend Development & Code Analysis",
"capabilities": [
"api_design",
"database_schema",
"backend_logic"
]
},
"acacia": {
"endpoint": "http://192.168.1.72:11434",
"model": "deepseek-r1:7b",
"specialty": "Infrastructure, DevOps & System Architecture",
"capabilities": [
"deployment",
"n8n_integration",
"system_architecture"
]
},
"rosewood": {
"endpoint": "http://192.168.1.132:11434",
"model": "deepseek-r1:8b",
"specialty": "Quality Assurance, Testing & Code Review",
"capabilities": [
"testing_workflows",
"quality_validation",
"performance_testing"
]
},
"oak": {
"endpoint": "http://192.168.1.135:11434",
"model": "mistral:7b-instruct",
"specialty": "iOS/macOS Development & Apple Ecosystem",
"capabilities": [
"mobile_integration",
"apple_ecosystem",
"native_apps"
]
}
}
}