Picture for Simon J. Julier

Simon J. Julier

Matrix-Valued Measures and Wishart Statistics for Target Tracking Applications

Add code
Jun 02, 2024
Viaarxiv icon

Gradient-Based Interpretability Methods and Binarized Neural Networks

Add code
Jun 23, 2021
Figure 1 for Gradient-Based Interpretability Methods and Binarized Neural Networks
Figure 2 for Gradient-Based Interpretability Methods and Binarized Neural Networks
Figure 3 for Gradient-Based Interpretability Methods and Binarized Neural Networks
Viaarxiv icon

Instant Automated Inference of Perceived Mental Stress through Smartphone PPG and Thermal Imaging

Add code
Dec 21, 2018
Figure 1 for Instant Automated Inference of Perceived Mental Stress through Smartphone PPG and Thermal Imaging
Figure 2 for Instant Automated Inference of Perceived Mental Stress through Smartphone PPG and Thermal Imaging
Figure 3 for Instant Automated Inference of Perceived Mental Stress through Smartphone PPG and Thermal Imaging
Figure 4 for Instant Automated Inference of Perceived Mental Stress through Smartphone PPG and Thermal Imaging
Viaarxiv icon

Deep Thermal Imaging: Proximate Material Type Recognition in the Wild through Deep Learning of Spatial Surface Temperature Patterns

Add code
Mar 06, 2018
Figure 1 for Deep Thermal Imaging: Proximate Material Type Recognition in the Wild through Deep Learning of Spatial Surface Temperature Patterns
Figure 2 for Deep Thermal Imaging: Proximate Material Type Recognition in the Wild through Deep Learning of Spatial Surface Temperature Patterns
Figure 3 for Deep Thermal Imaging: Proximate Material Type Recognition in the Wild through Deep Learning of Spatial Surface Temperature Patterns
Figure 4 for Deep Thermal Imaging: Proximate Material Type Recognition in the Wild through Deep Learning of Spatial Surface Temperature Patterns
Viaarxiv icon

Robust tracking of respiratory rate in high-dynamic range scenes using mobile thermal imaging

Add code
Sep 20, 2017
Figure 1 for Robust tracking of respiratory rate in high-dynamic range scenes using mobile thermal imaging
Figure 2 for Robust tracking of respiratory rate in high-dynamic range scenes using mobile thermal imaging
Figure 3 for Robust tracking of respiratory rate in high-dynamic range scenes using mobile thermal imaging
Figure 4 for Robust tracking of respiratory rate in high-dynamic range scenes using mobile thermal imaging
Viaarxiv icon

DeepBreath: Deep Learning of Breathing Patterns for Automatic Stress Recognition using Low-Cost Thermal Imaging in Unconstrained Settings

Add code
Aug 20, 2017
Figure 1 for DeepBreath: Deep Learning of Breathing Patterns for Automatic Stress Recognition using Low-Cost Thermal Imaging in Unconstrained Settings
Figure 2 for DeepBreath: Deep Learning of Breathing Patterns for Automatic Stress Recognition using Low-Cost Thermal Imaging in Unconstrained Settings
Figure 3 for DeepBreath: Deep Learning of Breathing Patterns for Automatic Stress Recognition using Low-Cost Thermal Imaging in Unconstrained Settings
Figure 4 for DeepBreath: Deep Learning of Breathing Patterns for Automatic Stress Recognition using Low-Cost Thermal Imaging in Unconstrained Settings
Viaarxiv icon

Unscented Orientation Estimation Based on the Bingham Distribution

Add code
Nov 22, 2013
Figure 1 for Unscented Orientation Estimation Based on the Bingham Distribution
Figure 2 for Unscented Orientation Estimation Based on the Bingham Distribution
Figure 3 for Unscented Orientation Estimation Based on the Bingham Distribution
Viaarxiv icon