Now 5892 visitors
Today:0 Yesterday:0
Total: 150546
216S 51P 5R
2026-10-22, Week 43 |
| Member Login |
| TACT Journal Homepage |
| Call for Paper |
| Committee |
| Find My Paper |
| Author Homepage |
| Statistics & History |
| Welcome Message |
| Paper Procedure |
| FAQ |
| Paper Archives |
| Outstanding Papers |
| Author Homepage |
| - Paper Procedure |
| - Journal Procedure |
| - Presentation Tips |
|
| Program & Proceedings |
| Program with Papers |
| Plenary Session |
| Tutorial Session |
|
| Presentation Platform |
| Hotel & Travel Info |
| About Korea |
| Accommodation |
| Transportation |
| VISA |
| Other Infomation |
|
| Photo Gallery |
| Scheduler Login |
| Seminar |
| Archives Login |
|
| Sponsors |

|
|
|
|
|
|
|
|
|
|
|
|
|
|
| Save Q&A |
|
* Edit or answer any Q&A by selecting Q&A number Hyper Link below + Write button (Save) |
ICACT20250091 Question.1 Questioner: litingwei@stu.scau.edu.cn 2025-03-07 ¿ÀÀü 11:57:10 |
ICACT20250091 Answer.1 Answer by Auhor litingwei@stu.scau.edu.cn 2025-03-07 ¿ÀÀü 11:57:10
Chrome Click!! |
| The paper proposes a partial charging scheduling scheme based on deep reinforcement learning. How do you think this method addresses the computational complexity issues that may arise as the number of sensor nodes increases? |
The proposed partial charging scheduling scheme based on deep reinforcement learning (DRL) addresses computational complexity by leveraging the ability of DRL algorithms to handle large and dynamic environments efficiently. DRL can learn optimal charging policies through interaction with the environment, allowing it to adapt and scale as the number of sensor nodes increases. |
| |