Bekithemba Matshazi
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TaskFlow AI
ReactPythonTensorFlowFastAPIMongoDB

TaskFlow AI

4 min read

An intelligent task management application powered by AI that helps teams prioritize work, predict bottlenecks, and optimize workflows using machine learning.

TaskFlow AI - Intelligent Task Management

TaskFlow AI is an intelligent task management application that leverages machine learning to help teams work smarter. Built with React, Python, and TensorFlow, it provides AI-powered insights for task prioritization and workflow optimization.

Overview

In today's fast-paced work environment, teams struggle with prioritizing tasks effectively. TaskFlow AI solves this by analyzing historical data, team performance patterns, and project dependencies to provide intelligent recommendations.

Key Features

  • Smart Task Prioritization: ML model suggests optimal task ordering
  • Bottleneck Detection: Identifies potential roadblocks before they occur
  • Time Estimation: Predicts task completion times based on historical data
  • Team Analytics: Comprehensive insights into team productivity
  • Natural Language Processing: Create tasks using natural language
  • Integration Support: Connect with GitHub, Jira, and Slack

Technical Architecture

Frontend Stack

The frontend is built with React and TypeScript, utilizing modern hooks and context for state management. The UI is styled with Tailwind CSS and uses Framer Motion for smooth animations.

// Example of AI-powered task suggestion hook
const useTaskSuggestions = (tasks: Task[]) => {
  const [suggestions, setSuggestions] = useState<Suggestion[]>([]);

  useEffect(() => {
    const fetchSuggestions = async () => {
      const response = await fetch('/api/ml/suggestions', {
        method: 'POST',
        body: JSON.stringify({ tasks }),
      });
      const data = await response.json();
      setSuggestions(data.suggestions);
    };

    fetchSuggestions();
  }, [tasks]);

  return suggestions;
};

Backend Architecture

The backend uses FastAPI (Python) for high-performance async operations. The ML models are built with TensorFlow and trained on project data to provide personalized recommendations.

from fastapi import FastAPI, BackgroundTasks
from ml_models import TaskPrioritizer, TimeEstimator

app = FastAPI()

@app.post("/api/ml/suggestions")
async def get_suggestions(tasks: list[Task]):
    prioritizer = TaskPrioritizer()
    estimator = TimeEstimator()

    priorities = prioritizer.predict(tasks)
    time_estimates = estimator.predict(tasks)

    return {
        "suggestions": combine_predictions(priorities, time_estimates)
    }

Machine Learning Pipeline

The ML pipeline consists of three main components:

1. Data Collection: Gathers task completion data, time logs, and team interactions

2. Model Training: Uses ensemble methods combining Random Forests and Neural Networks

3. Prediction Service: Serves real-time predictions through REST API

Implementation Highlights

Natural Language Task Creation

One of the standout features is the ability to create tasks using natural language:

"Schedule a meeting with the design team next Tuesday to review mockups"

This gets parsed into:

  • Task type: Meeting
  • Assignees: Design team
  • Due date: Next Tuesday
  • Description: Review mockups

Bottleneck Detection Algorithm

The system analyzes task dependencies and team capacity to identify potential bottlenecks:

def detect_bottlenecks(tasks, team_capacity):
    dependency_graph = build_graph(tasks)
    critical_path = find_critical_path(dependency_graph)

    bottlenecks = []
    for node in critical_path:
        if node.estimated_time > team_capacity[node.assignee]:
            bottlenecks.append({
                'task': node,
                'risk_level': calculate_risk(node),
                'suggestions': generate_suggestions(node)
            })

    return bottlenecks

Challenges Overcome

1. Model Accuracy

Initial models had accuracy around 65% for time estimation. Through feature engineering and ensemble methods, we improved this to 87% accuracy.

Key improvements:

  • Added team velocity as a feature
  • Incorporated task complexity scoring
  • Used historical sprint data for training

2. Real-time Performance

Processing predictions for large teams (100+ tasks) initially took 3-5 seconds. Optimizations included:

  • Implementing Redis caching for frequently accessed predictions
  • Batch processing for multiple tasks
  • Model quantization for faster inference

Result: Average response time reduced to under 500ms

3. Data Privacy

Handling sensitive project data required careful consideration:

  • Implemented end-to-end encryption for data transmission
  • On-premise deployment option for enterprise clients
  • Federated learning approach for privacy-preserving model updates

Results and Impact

After deploying TaskFlow AI across multiple teams:

  • 40% reduction in missed deadlines
  • 30% improvement in sprint velocity
  • 25% decrease in context switching
  • High user satisfaction with 4.7/5 rating
Analytics Dashboard

Analytics Dashboard

Tech Stack Deep Dive

LayerTechnologyPurpose
FrontendReact, TypeScriptUI components and state management
StylingTailwind CSSResponsive design system
Backend APIFastAPI, PythonHigh-performance async endpoints
ML FrameworkTensorFlowNeural network models
DatabaseMongoDBFlexible document storage
CacheRedisFast data access layer
DeploymentDocker, AWS ECSContainerized microservices

Future Enhancements

  • Voice-based task creation
  • Integration with calendar apps
  • Mobile native applications
  • Advanced team collaboration features
  • Customizable ML model training

Lessons Learned

Building TaskFlow AI taught me valuable lessons about:

  • Balancing model complexity with performance
  • Importance of user feedback in ML applications
  • Data quality being crucial for ML success
  • Iterative development for AI products

This project demonstrates the power of combining traditional software engineering with machine learning to create intelligent tools that genuinely improve productivity.