Javascript must be enabled to continue!
Adaptive Drop Approaches to Train Spiking-YOLO Network for Traffic Flow Counting
View through CrossRef
Abstract
Traffic flow counting is an object detection problem. YOLO (" You Only Look Once ") is a popular object detection network. Spiking-YOLO converts the YOLO network from ANN(artificial neural network) to SNN (spiking neural network), which consumes less power than YOLO. However, Spiking-YOLO is difficult to train and has poor accuracy because of overfitting. Dropout and DropConnect are two methods to regularize neural network models and have produced cutting-edge outcomes in many benchmarks. The two drop approaches are first applied to Spiking-YOLO. Considering that a higher membrane potential of a biological neuron implies a higher probability of neural activation, we propose three adaptive drop algorithms—Spiking-YOLO with adaptive Dropout, Spiking-YOLO with adaptive DropConnect, and Spiking-YOLO with group adaptive Drop, which adaptively adjusts the keep probability for training SNNs. The experimental results show that the adaptive algorithms have fast convergence speed with high detection accuracy and mAP value, and work well in the case of high-speed streaming video, making them suitable for online learning scenarios.
Springer Science and Business Media LLC
Title: Adaptive Drop Approaches to Train Spiking-YOLO Network for Traffic Flow Counting
Description:
Abstract
Traffic flow counting is an object detection problem.
YOLO (" You Only Look Once ") is a popular object detection network.
Spiking-YOLO converts the YOLO network from ANN(artificial neural network) to SNN (spiking neural network), which consumes less power than YOLO.
However, Spiking-YOLO is difficult to train and has poor accuracy because of overfitting.
Dropout and DropConnect are two methods to regularize neural network models and have produced cutting-edge outcomes in many benchmarks.
The two drop approaches are first applied to Spiking-YOLO.
Considering that a higher membrane potential of a biological neuron implies a higher probability of neural activation, we propose three adaptive drop algorithms—Spiking-YOLO with adaptive Dropout, Spiking-YOLO with adaptive DropConnect, and Spiking-YOLO with group adaptive Drop, which adaptively adjusts the keep probability for training SNNs.
The experimental results show that the adaptive algorithms have fast convergence speed with high detection accuracy and mAP value, and work well in the case of high-speed streaming video, making them suitable for online learning scenarios.
Related Results
Lightweight fruit detection algorithms for low‐power computing devices
Lightweight fruit detection algorithms for low‐power computing devices
Abstract
A lightweight fruit detection algorithm is important to ensure real‐time detection on low‐power computing devices while maintaining detection accuracy. I...
Application of YOLO-v7 and YOLO-v8 Transfer Learning Models in Breast Lesion Classification and Diagnosis
Application of YOLO-v7 and YOLO-v8 Transfer Learning Models in Breast Lesion Classification and Diagnosis
Background:
Early detection of breast cancer and accurate assessment of lesions are key goals of imaging evaluation. Ultrasound is widely used, but its
diagnost...
A Traffic Flow Prediction Method Based on Blockchain and Federated Learning
A Traffic Flow Prediction Method Based on Blockchain and Federated Learning
Abstract
Traffic flow prediction is the an important issue in the field of intelligent transportation, and real-time and accurate traffic flow prediction plays a crucial ro...
TYPES OF AI ALGORİTHMS USED İN TRAFFİC FLOW PREDİCTİON
TYPES OF AI ALGORİTHMS USED İN TRAFFİC FLOW PREDİCTİON
The increasing complexity of urban transportation systems and the growing volume of vehicles have made traffic congestion a persistent challenge in modern cities. Efficient traffic...
Smart Traffic Control Using Computer Vision
Smart Traffic Control Using Computer Vision
A Smart Traffic Control System using Computer Vision utilizes cameras, image processing techniques, and machine learning algorithms to monitor, analyze, and manage traffic flow aut...
Embedding optimization reveals long-lasting history dependence in neural spiking activity
Embedding optimization reveals long-lasting history dependence in neural spiking activity
AbstractInformation processing can leave distinct footprints on the statistics of neural spiking. For example, efficient coding minimizes the statistical dependencies on the spikin...
Traffic Prediction in 5G Networks Using Machine Learning
Traffic Prediction in 5G Networks Using Machine Learning
The advent of 5G technology promises a paradigm shift in the realm of
telecommunications, offering unprecedented speeds and connectivity. However, the
...
MODELİNG OF TRAFFİC LİGHT CONTROL SYSTEMS
MODELİNG OF TRAFFİC LİGHT CONTROL SYSTEMS
Traffic light control systems are commonly utilized to monitor and manage the flow of autos across multiple road intersections. Since traffic jams are ubiquitous in daily life, A c...

