Closed J-B-Mugundh closed 6 days ago
@J-B-Mugundh assigning this issue to you.
Make sure to complete this.
this will be the last issue i am gonna assign you.
As i have said before i will be inactive from tomorrow.
@J-B-Mugundh assigning this issue to you.
Make sure to complete this.
this will be the last issue i am gonna assign you.
As i have said before i will be inactive from tomorrow.
Can I just make one more? Sorry, since I had exams, i couldn't raise issues. I'll complete them for sure
@J-B-Mugundh firstly please complete this issue.
then i will look into other issue.
@J-B-Mugundh firstly please complete this issue.
then i will look into other issue.
Yea sure!
@J-B-Mugundh again that next issue you are gonna raise after you complete this one's.
the next issue will be the last issue that i am gonna assign you.
i hope you got it.
from now on the PR'S are gonna be reviewed by the program manager.
Is your feature request related to a problem? Please describe.
UAV path planning is very crucial and also interesting to learn.
Describe the solution you'd like.
UAV Path Planning Algorithm with RL Problem Definition:
Define the environment (2D/3D space) where the UAV operates, including obstacles, goal locations, and start positions. Identify state variables (e.g., UAV position, velocity, battery level) and actions (e.g., movement directions). State Space and Action Space:
State Space: Represent the environment's state (e.g., position, orientation) in a suitable format (e.g., grid-based, continuous). Action Space: Define possible actions the UAV can take (e.g., move forward, turn left, turn right). Reward Function:
Design a reward function that provides feedback to the UAV: Positive reward for reaching the target. Negative reward for collisions or unnecessary movements. Smaller penalties for energy consumption or time taken. Choose an RL Algorithm:
Select an appropriate RL algorithm, such as Q-learning, Deep Q-Networks (DQN), or Proximal Policy Optimization (PPO), depending on the complexity of the environment and state/action space. Training the Agent:
Initialize the agent with random policies or pre-trained weights. Run simulations in the environment to allow the UAV to explore and learn: For each episode, let the UAV interact with the environment. Update the policy based on the received rewards using the chosen RL algorithm. Policy Improvement:
Continuously refine the policy through episodes: Use experience replay (if applicable) to store and sample past experiences. Adjust exploration strategies (e.g., ε-greedy) to balance exploration and exploitation. Validation and Testing:
Test the trained model in various scenarios to evaluate its performance: Check how well it navigates towards the goal while avoiding obstacles. Assess efficiency (time taken, path length). Deployment:
Once satisfied with the performance, deploy the trained model in real-time scenarios, ensuring it can adapt to dynamic environments if necessary. Continuous Learning:
Implement mechanisms for online learning or retraining in new environments to improve the UAV's adaptability.
Describe alternatives you've considered.
No response
Additional context.
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Show us the magic with screenshots
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