Abstract:
This paper addresses the quantile regression task when some non-negligible portion of data are corrupted by accidental factors such as temporary sensor malfunctions. Here...Show MoreMetadata
Abstract:
This paper addresses the quantile regression task when some non-negligible portion of data are corrupted by accidental factors such as temporary sensor malfunctions. Here, the task is to find the empirical quantile of the "reliable" data with the "unreliable" ones excluded. For this task, we propose the MC-pinball loss which is the composition of the minimax concave (MC) penalty and the pinball loss. The simulation results show that the proposed approach yields reasonable estimates of the true quantile. A potential benefit of the proposed approach is also shown with respect to the parameter tuning.
Published in: 2024 Asia Pacific Signal and Information Processing Association Annual Summit and Conference (APSIPA ASC)
Date of Conference: 03-06 December 2024
Date Added to IEEE Xplore: 27 January 2025
ISBN Information:
ISSN Information:
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Quantile Regression ,
- Unreliable Data ,
- Empirical Quantiles ,
- Normal Distribution ,
- Loss Function ,
- Left Side ,
- Uniform Distribution ,
- Training Dataset ,
- Gamma Distribution ,
- Linear Approximation ,
- Coverage Rate ,
- Point-like ,
- Random Vector ,
- Human Error ,
- Dirac Delta ,
- Quantile Estimation ,
- Robust Recovery
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Quantile Regression ,
- Unreliable Data ,
- Empirical Quantiles ,
- Normal Distribution ,
- Loss Function ,
- Left Side ,
- Uniform Distribution ,
- Training Dataset ,
- Gamma Distribution ,
- Linear Approximation ,
- Coverage Rate ,
- Point-like ,
- Random Vector ,
- Human Error ,
- Dirac Delta ,
- Quantile Estimation ,
- Robust Recovery