TY - JOUR
T1 - AVI-Net
T2 - Audio-visual-integration inspired deep network with application to short-term air temperature forecasting
AU - Wu, Han
AU - Liang, Yan
AU - Gao, Xiao Zhi
AU - Heng, Jia Ni
AU - Du, Pei
N1 - Publisher Copyright:
© 2025 Elsevier Ltd
PY - 2025/7/1
Y1 - 2025/7/1
N2 - Accurate forecasting of air temperature plays an important role in epidemic disease prevention, agricultural safety, tourism management, etc., but is hard to accurately perform since the series as a natural process involves lots of stochastic and nonlinear fluctuations. Meanwhile, most existing deep forecasting networks attempt to improve accuracy by integrating some design tricks and lack reasonable guidelines and domain knowledge. Biologically-inspired ideas are promising to address the above drawbacks, and this paper develops an audio-visual-integration inspired deep network, namely AVI-Net, for short-term air temperature forecasting, including the feature capture (imitating the auditory canal and ocular globe), feature analysis (imitating the left and right cerebral hemispheres) and forecasting realization blocks (imitating the high-level brain region). First, the domain knowledge is injected in the AVI-Net from the selection-addition feature and the loss function constructed via the Gaussian kernel, improving the extraction capability of long-term trends and short-term non-linearities. Second, multiple Monte Carlo dropout layers are integrated into the AVI-Net to introduce the model uncertainty, obtaining confidence intervals and enhancing the application values. Finally, the AVI-Net deeply mimics the audio-visual integrated system in the flowchart, structure, and function, inheriting its superior analysis capabilities and having somewhat interpretability in the network design. Seven experiments and six discussions under two real-world datasets present that the AVI-Net has better forecasting accuracy and stability than 14 baselines, and is suitable to be the intelligent and reliable decision support system for related sectors.
AB - Accurate forecasting of air temperature plays an important role in epidemic disease prevention, agricultural safety, tourism management, etc., but is hard to accurately perform since the series as a natural process involves lots of stochastic and nonlinear fluctuations. Meanwhile, most existing deep forecasting networks attempt to improve accuracy by integrating some design tricks and lack reasonable guidelines and domain knowledge. Biologically-inspired ideas are promising to address the above drawbacks, and this paper develops an audio-visual-integration inspired deep network, namely AVI-Net, for short-term air temperature forecasting, including the feature capture (imitating the auditory canal and ocular globe), feature analysis (imitating the left and right cerebral hemispheres) and forecasting realization blocks (imitating the high-level brain region). First, the domain knowledge is injected in the AVI-Net from the selection-addition feature and the loss function constructed via the Gaussian kernel, improving the extraction capability of long-term trends and short-term non-linearities. Second, multiple Monte Carlo dropout layers are integrated into the AVI-Net to introduce the model uncertainty, obtaining confidence intervals and enhancing the application values. Finally, the AVI-Net deeply mimics the audio-visual integrated system in the flowchart, structure, and function, inheriting its superior analysis capabilities and having somewhat interpretability in the network design. Seven experiments and six discussions under two real-world datasets present that the AVI-Net has better forecasting accuracy and stability than 14 baselines, and is suitable to be the intelligent and reliable decision support system for related sectors.
KW - Air temperature forecasting
KW - Audio-visual integration
KW - Deep network
KW - Gated mechanism
KW - Kernel loss function
UR - http://www.scopus.com/inward/record.url?scp=105002655955&partnerID=8YFLogxK
U2 - 10.1016/j.eswa.2025.127604
DO - 10.1016/j.eswa.2025.127604
M3 - 文章
AN - SCOPUS:105002655955
SN - 0957-4174
VL - 281
JO - Expert Systems with Applications
JF - Expert Systems with Applications
M1 - 127604
ER -