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Deep Neural Network-Based Concentration Model for Oak Pollen Allergy Warning in South Korea.
Yun Am Seo1, Kyu Rang Kim2, Changbum Cho3
1AI Weather Forecast Research Team, National Institute of Meteorological Science, Seogwipo, Korea.
Allergy, Asthma & Immunology Research
|November 20, 2019
Summary
A new deep neural network (DNN) model accurately estimates oak pollen concentrations in Korea, outperforming traditional methods. Further optimization is needed for peak pollen prediction, but the DNN model shows promise for allergy management.
Area of Science:
- Environmental Science
- Allergy and Immunology
- Data Science and Machine Learning
Background:
- Oak pollen is a significant allergen in Korea, with high sensitivity rates among the population.
- Conventional regression models struggle to accurately predict oak pollen concentrations and season dynamics.
- Accurate oak pollen forecasting is crucial for managing allergic rhinitis and improving public health.
Purpose of the Study:
- To develop and evaluate a deep neural network (DNN)-based model for estimating oak pollen concentration.
- To overcome the limitations of traditional regression models in predicting allergenic pollen levels.
- To assess the DNN model's performance against regression and support vector regression (SVR) models.
Main Methods:
- A DNN model was developed using weather factors as input and pollen concentrations as output.
- A bootstrap aggregating ensemble method with 30 members was employed to prevent overfitting and underestimation.
- Model performance was compared using data from 2007-2016, evaluating predictions of concentration, risk, and season length.
Main Results:
- The DNN model achieved a mean absolute percentage error of 5.04% for pollen concentration, significantly lower than regression (11.18%) and SVR (10.37%).
- The DNN model provided more accurate estimations for the start and end dates of the pollen season compared to regression and SVR.
- While overall performance was superior, the DNN model requires improvement in predicting peak pollen concentrations.
Conclusions:
- The developed DNN ensemble model demonstrates superior performance in estimating oak pollen concentrations and season length.
- Further refinement of the DNN model and improved data quality are necessary to enhance peak pollen concentration predictions.
- This advanced modeling approach offers a promising tool for allergy forecasting and public health management in Korea.

