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import gradio as gr
import pandas as pd
from task_manager import TaskManager
import os
# AI Task Assignment System for Hugging Face Spaces
# All data is USER INPUT - AI only handles assignment optimization
# Initialize the task manager
tm = TaskManager()
def show_dashboard():
"""Display system dashboard"""
try:
stats = []
# Show current users
if len(tm.engine.users) > 0:
stats.append("π₯ **REGISTERED USERS**")
for _, user in tm.engine.users.iterrows():
stats.append(f"- ID {user['user_id']}: {user['name']}")
else:
stats.append("π₯ **No users yet** - Add users in the 'Add User' tab")
# Show current tasks
stats.append("")
if len(tm.engine.tasks) > 0:
stats.append("π **REGISTERED TASKS**")
for _, task in tm.engine.tasks.iterrows():
status = "β
Completed" if task['task_id'] in tm.engine.results['task_id'].values else "β³ Pending"
stats.append(f"- ID {task['task_id']}: {task['type']} (Complexity: {task['complexity']}, Deadline: {task['deadline']}h) [{status}]")
else:
stats.append("π **No tasks yet** - Add tasks in the 'Add Task' tab")
# Basic stats
stats.append("")
if len(tm.engine.results) > 0:
stats.append("π **PERFORMANCE STATISTICS**")
stats.append(f"- Total completed tasks: {len(tm.engine.results)}")
stats.append(f"- Average quality: {tm.engine.results['quality'].mean():.2f}/5")
stats.append(f"- Average time: {tm.engine.results['time_taken'].mean():.1f}h")
# User performance
user_stats = tm.engine.results.merge(tm.engine.users, on='user_id').groupby('name').agg({
'quality': 'mean',
'time_taken': 'mean',
'task_id': 'count'
}).round(2)
stats.append("\nπ **USER PERFORMANCE (AI Learning Data)**")
for user, row in user_stats.iterrows():
skill = "βExpert" if row['quality'] >= 4 else "β¨Good" if row['quality'] >= 3 else "πLearning"
stats.append(f"- {user}: {row['quality']:.1f}/5 quality, {row['time_taken']:.1f}h avg, {int(row['task_id'])} tasks [{skill}]")
# Active tasks
if hasattr(tm.engine, 'progress_data') and tm.engine.progress_data:
active_tasks = [task for task in tm.engine.progress_data.values()
if task['status'] in ['assigned', 'in_progress']]
if active_tasks:
stats.append("\nπ **ACTIVE TASKS**")
for task in active_tasks:
status_icon = "π" if task['status'] == 'in_progress' else "π"
progress = ""
if task.get('progress_updates'):
latest = task['progress_updates'][-1]
progress = f" ({latest['progress_percent']}%)"
stats.append(f"{status_icon} Task {task['task_id']}: {task['user_name']} β {task['task_type']}{progress}")
# AI status
stats.append("")
ai_status = "π€ **AI Status**: " + ("Trained β
(Making smart assignments)" if tm.engine.is_trained else "Learning Mode β οΈ (Need completed tasks to learn)")
stats.append(ai_status)
return "\n".join(stats)
except Exception as e:
return f"Error: {str(e)}"
def assign_tasks():
"""Assign pending tasks using AI"""
try:
if len(tm.engine.users) == 0:
return "β No users registered! Add users first in the 'Add User' tab."
if len(tm.engine.tasks) == 0:
return "β No tasks registered! Add tasks first in the 'Add Task' tab."
assignments = []
for _, task in tm.engine.tasks.iterrows():
task_id = task['task_id']
# Check if task already completed
completed = tm.engine.results[tm.engine.results['task_id'] == task_id]
if len(completed) > 0:
continue
# Check if already assigned
task_key = None
for key, data in tm.engine.progress_data.items():
if data['task_id'] == task_id and data['status'] in ['assigned', 'in_progress']:
task_key = key
break
if task_key:
continue
user_id, user_name = tm.engine.assign_task(task_id)
if user_name:
confidence = "AI Optimized" if tm.engine.is_trained else "Random (AI learning)"
assignments.append(f"β
Task {task_id} ({task['type']}) β **{user_name}** [{confidence}]")
if not assignments:
return "π No pending tasks to assign (all tasks are either completed or already assigned)"
return "\n".join(assignments)
except Exception as e:
return f"Error: {str(e)}"
def add_user(name):
"""Add new user"""
try:
if not name.strip():
return "β Please enter a valid name"
tm.add_user(name.strip())
# Return updated user list
user_list = "\n".join([f"- ID {u['user_id']}: {u['name']}" for _, u in tm.engine.users.iterrows()])
return f"β
Added user: **{name.strip()}**\n\n**Current Users:**\n{user_list}"
except Exception as e:
return f"Error: {str(e)}"
def remove_user(user_id):
"""Remove a user"""
try:
if user_id is None or user_id <= 0:
return "β Please enter a valid User ID"
success, user_name = tm.remove_user(int(user_id))
if not success:
return f"β User ID {int(user_id)} not found!"
# Return updated user list
if len(tm.engine.users) > 0:
user_list = "\n".join([f"- ID {u['user_id']}: {u['name']}" for _, u in tm.engine.users.iterrows()])
else:
user_list = "No users remaining"
return f"β
Removed user: **{user_name}** (ID: {int(user_id)})\n\n**Current Users:**\n{user_list}"
except Exception as e:
return f"Error: {str(e)}"
def add_task(task_type, complexity, deadline):
"""Add new task"""
try:
if not task_type.strip():
return "β Please enter a task type"
if not (0 <= complexity <= 1):
return "β Complexity must be between 0 and 1"
if deadline <= 0:
return "β Deadline must be positive"
tm.add_task(task_type.strip(), complexity, deadline)
# Return updated task list
task_list = "\n".join([f"- ID {t['task_id']}: {t['type']} (Complexity: {t['complexity']})" for _, t in tm.engine.tasks.iterrows()])
return f"β
Added task: **{task_type.strip()}**\n\n**Current Tasks:**\n{task_list}"
except Exception as e:
return f"Error: {str(e)}"
def remove_task(task_id):
"""Remove a task"""
try:
if task_id is None or task_id <= 0:
return "β Please enter a valid Task ID"
success, task_name = tm.remove_task(int(task_id))
if not success:
return f"β Task ID {int(task_id)} not found!"
# Return updated task list
if len(tm.engine.tasks) > 0:
task_list = "\n".join([f"- ID {t['task_id']}: {t['type']} (Complexity: {t['complexity']})" for _, t in tm.engine.tasks.iterrows()])
else:
task_list = "No tasks remaining"
return f"β
Removed task: **{task_name}** (ID: {int(task_id)})\n\n**Current Tasks:**\n{task_list}"
except Exception as e:
return f"Error: {str(e)}"
def update_progress(task_id, user_id, progress, notes):
"""Update task progress"""
try:
if task_id is None or task_id <= 0:
return "β Please enter a valid Task ID"
if user_id is None or user_id <= 0:
return "β Please enter a valid User ID"
if not (0 <= progress <= 100):
return "β Progress must be between 0 and 100"
# Validate task exists
task_df = tm.engine.tasks[tm.engine.tasks['task_id'] == int(task_id)]
if len(task_df) == 0:
return f"β Task ID {int(task_id)} not found!"
# Validate user exists
user_df = tm.engine.users[tm.engine.users['user_id'] == int(user_id)]
if len(user_df) == 0:
return f"β User ID {int(user_id)} not found!"
tm.update_progress(int(task_id), int(user_id), int(progress), notes.strip() if notes else "")
return f"β
Progress updated: Task {int(task_id)} β {int(progress)}%"
except Exception as e:
return f"Error: {str(e)}"
def complete_task(task_id, user_id, time_taken, quality):
"""Complete a task - THIS IS HOW AI LEARNS"""
try:
if task_id is None or task_id <= 0:
return "β Please enter a valid Task ID"
if user_id is None or user_id <= 0:
return "β Please enter a valid User ID"
if not (1 <= quality <= 5):
return "β Quality must be between 1 and 5"
if time_taken is None or time_taken <= 0:
return "β Time taken must be positive"
# Validate task exists
task_df = tm.engine.tasks[tm.engine.tasks['task_id'] == int(task_id)]
if len(task_df) == 0:
return f"β Task ID {int(task_id)} not found! Check the Dashboard for valid Task IDs."
# Validate user exists
user_df = tm.engine.users[tm.engine.users['user_id'] == int(user_id)]
if len(user_df) == 0:
return f"β User ID {int(user_id)} not found! Check the Dashboard for valid User IDs."
tm.enter_result(int(task_id), int(user_id), float(time_taken), int(quality))
task_name = task_df['type'].iloc[0]
user_name = user_df['name'].iloc[0]
return f"""β
Task completed successfully!
**Details:**
- Task: {task_name} (ID: {int(task_id)})
- Completed by: {user_name} (ID: {int(user_id)})
- Time taken: {time_taken}h
- Quality: {int(quality)}/5
π§ **AI is learning from this result!**
Retrain the AI in the 'Train AI' tab to improve future assignments."""
except Exception as e:
return f"Error: {str(e)}"
def retrain_ai():
"""Retrain the AI model"""
try:
if len(tm.engine.results) == 0:
return "β No completed tasks yet! Complete some tasks first so AI can learn from them."
tm.retrain_ai()
return f"""β
AI model retrained successfully!
**AI learned from {len(tm.engine.results)} completed tasks.**
The AI will now make smarter assignments based on:
- User performance patterns
- Task complexity matching
- Time efficiency
- Quality consistency
Try assigning new tasks to see improved recommendations!"""
except Exception as e:
return f"Error: {str(e)}"
# Create Gradio interface
with gr.Blocks(title="π§ AI Task Assignment System") as app:
gr.Markdown("""
# π§ AI Task Assignment System
**A self-learning task assignment engine powered by AI**
### How It Works:
1. **π€ Add Users** - Enter your team members
2. **π Add Tasks** - Enter tasks with complexity & deadlines
3. **π― Get AI Assignments** - AI recommends optimal person for each task
4. **β
Complete Tasks** - Enter results (time taken, quality)
5. **π§ AI Learns** - System improves with every completed task
> β‘ **All data is YOUR input** - AI only handles assignment optimization based on observed performance!
""")
with gr.Tabs():
# Dashboard Tab
with gr.Tab("π Dashboard"):
gr.Markdown("### System Overview - Users, Tasks & Performance")
dashboard_btn = gr.Button("π Refresh Dashboard", variant="primary")
dashboard_output = gr.Markdown()
dashboard_btn.click(show_dashboard, outputs=dashboard_output)
# Add User Tab
with gr.Tab("π€ Add User"):
gr.Markdown("### Register a new team member")
gr.Markdown("*Enter the name of the person you want to add to the system.*")
user_name = gr.Textbox(label="User Name", placeholder="Enter name (e.g., John, Sarah, etc.)...")
add_user_btn = gr.Button("β Add User", variant="primary")
add_user_output = gr.Markdown()
add_user_btn.click(add_user, inputs=user_name, outputs=add_user_output)
# Remove User Tab
with gr.Tab("ποΈ Remove User"):
gr.Markdown("### Remove a team member")
gr.Markdown("*Enter the User ID to remove. Check the Dashboard for User IDs.*")
gr.Markdown("β οΈ **Warning:** This will also remove all task history for this user.")
remove_user_id = gr.Number(label="User ID to Remove", precision=0, minimum=1)
remove_user_btn = gr.Button("ποΈ Remove User", variant="stop")
remove_user_output = gr.Markdown()
remove_user_btn.click(remove_user, inputs=remove_user_id, outputs=remove_user_output)
# Add Task Tab
with gr.Tab("π Add Task"):
gr.Markdown("### Create a new task")
gr.Markdown("*Enter task details - AI will assign it to the best person.*")
task_type = gr.Textbox(label="Task Name/Type", placeholder="e.g., Website Design, Data Analysis, Report Writing...")
with gr.Row():
task_complexity = gr.Slider(0, 1, value=0.5, label="Complexity (0=Very Easy, 1=Very Hard)")
task_deadline = gr.Number(label="Deadline (hours)", value=24, minimum=1)
add_task_btn = gr.Button("β Add Task", variant="primary")
add_task_output = gr.Markdown()
add_task_btn.click(add_task, inputs=[task_type, task_complexity, task_deadline], outputs=add_task_output)
# Remove Task Tab
with gr.Tab("ποΈ Remove Task"):
gr.Markdown("### Remove a task")
gr.Markdown("*Enter the Task ID to remove. Check the Dashboard for Task IDs.*")
gr.Markdown("β οΈ **Warning:** This will also remove all completion history for this task.")
remove_task_id = gr.Number(label="Task ID to Remove", precision=0, minimum=1)
remove_task_btn = gr.Button("ποΈ Remove Task", variant="stop")
remove_task_output = gr.Markdown()
remove_task_btn.click(remove_task, inputs=remove_task_id, outputs=remove_task_output)
# Assignment Tab
with gr.Tab("π― AI Assignment"):
gr.Markdown("""### Let AI assign pending tasks
AI analyzes each user's past performance and assigns tasks to the most suitable person.
*If no performance data exists yet, AI will make random assignments and learn from results.*""")
assign_btn = gr.Button("π― Assign All Pending Tasks", variant="primary", size="lg")
assign_output = gr.Markdown()
assign_btn.click(assign_tasks, outputs=assign_output)
# Progress Update Tab
with gr.Tab("π Update Progress"):
gr.Markdown("### Update task progress")
gr.Markdown("*Track how work is progressing on assigned tasks.*")
with gr.Row():
prog_task_id = gr.Number(label="Task ID", precision=0, minimum=1)
prog_user_id = gr.Number(label="User ID", precision=0, minimum=1)
progress_pct = gr.Slider(0, 100, value=50, label="Progress %")
progress_notes = gr.Textbox(label="Notes (optional)", placeholder="Any updates or blockers...")
update_prog_btn = gr.Button("π Update Progress", variant="primary")
update_prog_output = gr.Markdown()
update_prog_btn.click(update_progress, inputs=[prog_task_id, prog_user_id, progress_pct, progress_notes], outputs=update_prog_output)
# Complete Task Tab
with gr.Tab("β
Complete Task"):
gr.Markdown("""### Mark task as completed
**β‘ This is how AI learns!** Enter the actual results so AI can improve future assignments.""")
with gr.Row():
comp_task_id = gr.Number(label="Task ID", precision=0, minimum=1)
comp_user_id = gr.Number(label="User ID (who completed it)", precision=0, minimum=1)
with gr.Row():
time_taken = gr.Number(label="Actual Time Taken (hours)", value=1, minimum=0.1)
quality_score = gr.Slider(1, 5, value=3, label="Quality of Work (1=Poor, 5=Excellent)", step=1)
complete_btn = gr.Button("β
Complete Task", variant="primary")
complete_output = gr.Markdown()
complete_btn.click(complete_task, inputs=[comp_task_id, comp_user_id, time_taken, quality_score], outputs=complete_output)
# AI Training Tab
with gr.Tab("π§ Train AI"):
gr.Markdown("""### Retrain AI with new data
After completing tasks, retrain the AI to improve its assignment accuracy.
**The AI learns:**
- Which users perform best on which task types
- Time efficiency patterns
- Quality consistency
- Optimal user-task matching""")
retrain_btn = gr.Button("π§ Retrain AI Model", variant="primary", size="lg")
retrain_output = gr.Markdown()
retrain_btn.click(retrain_ai, outputs=retrain_output)
# Auto-load dashboard on startup
app.load(show_dashboard, outputs=dashboard_output)
if __name__ == "__main__":
# Launch without theme parameter for Gradio 4.44.0 compatibility
app.launch() |