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39 40</head> 41 42<body> 43 <div id="content"> 44 <div id="content-inner"> 45 <div class="section head"> 46 <h1> 47 <font color="Tomato">FPVT</font>--Face Pyramid Vision Transformer 48 </h1> 49 50 <div class="authors"> 51 <a href="https://khawar-islam.github.io/" target="_blank">Khawar Islam</a> <sup>1</sup> 52 53 <a href="https://zaighamz.com/" target="_blank">Muhammad Zaigham Zaheer</a> <sup>2,4</sup> 54 <a href="https://itu.edu.pk/faculty-itu/dr-arif-mahmood/" target="_blank">Arif Mahmood</a> <sup>3</sup> 55 </div> 56 57 <div class="affiliations "> 58 <sup>1</sup> FloppyDisk.AI, Pakistan 59 <sup>2</sup> Mohamed bin Zayed University of Artificial Intelligence, Abu Dhabi, UAE <br> 60 <sup>3</sup> Information Technology University, Pakistan 61 <sup>4</sup> Electronics and Telecommunications Research Institute, South Korea <br> 62 </div> 63 64 <!--=================Conference Name==========================--> 65 <div class="authors"> 66 <a href="https://bmvc2022.org/programme/papers/" target="_blank">British Machine Vision Conference (BMVC) 2022</a> 67 </div> 68 <!--=================Conference Name==========================--> 69 70 71 <div class="link"> 72 <a href="https://openaccess.thecvf.com/content/CVPR2021W/CLIC/papers/Islam_Image_Compression_With_Recurrent_Neural_Network_and_Generalized_Divisive_Normalization_CVPRW_2021_paper.pdf" target="_blank">[Paper]</a> 73 <a href="https://github.com/khawar-islam/FPVT_BMVC22" target="_blank">[Code]</a> 74 <a href="https://youtu.be/B02dOB0PXxk" target="_blank">[Video]</a> 75 <a href="./bibtex.txt" target="_blank">[Bibtex]</a> 76 77 </div> 78 79<!--=================Tabs==========================--> 80 <ul id="tabs"> 81 <li><a href="#Highlights" name="#tab1">Highlights</a></li> 82 <li><a href="#Evaluation & Results" name="#tab2">Evaluation & Results</a></li> 83 <li><a href="#Citation" name="#tab3">Citation</a></li> 84 <li><a href="#Contact" name="#tab4">Contact</a></li> 85 </div> 86 <br> 87 <!--=================Teasers==========================--> 88 <div class="section abstract" class="img_container"> 89 <center><img src="./fpvt.png" border="0" width="95%"></center> 90 <br> 91 <p style="text-align:justify"> 92 A simplified view of Face Pyramid Vision Transformer (FPVT) with limited computational resources. 93 The whole network represents a pyramid structure, every stage comprises of an improved patch embedding layer 94 and encoder layer.Following progressive shrinking strategy, the output resolution is diverse at every stage from high to 95 low resolution. 96 </p> 97 </div> 98 99 <!--=================News==========================--> 100 <div class="section Highlights", id="Highlights"> 101 <h2><font color="red">News</font></h2> 102 <ol> 103 <li>6/10/2022: We will release the extended version of our FPVT paper soon.</li> 104 </ol> 105 </div> 106 107 <!--=================Highlights==========================--> 108 <div class="section Highlights", id="Highlights"> 109 <h2>Highlights</h2> 110 <ol> 111 <li>FPVT introduces a CFFN that extracts locality information</li> 112 <li>We present Face Pyramid Vision Transformer (FPVT) to learn multi-scale discriminative</li> 113 <li>We introduce IPE which utilizes all benefits of CNNs to model low-level edges to higher-level semantic primitives</li> 114 </ol> 115 </div> 116 117 <!--=================Abstract==========================--> 118 <div class="section abstract"> 119 <h2>Abstract</h2> 120 <br> 121 <p style="text-align:justify"> 122 A novel Face Pyramid Vision Transformer (FPVT) is proposed to learn a discriminative multi-scale facial representations for face recognition and verification. In FPVT, 123 Face Spatial Reduction Attention (FSRA) and Dimensionality Reduction (F
123DR) layers 124 are employed to reduce the computations by compacting the feature maps. An Improved Patch Embedding (IPE) algorithm is proposed to exploit the benefits of CNNs in 125 ViTs (e.g., shared weights, local context, and receptive fields) to model low-level edges to higher-level semantic primitives. Within FPVT framework, a Convolutional Feed- 126 Forward Network (CFFN) is proposed that extracts locality information to learn low 127 level facial information. The proposed FPVT is evaluated on seven benchmark datasets 128 and compared with ten existing state-of-the-art methods including CNNs, pure ViTs and 129 Convolutional ViTs. Despite fewer parameters, FPVT has demonstrated excellent performance over the compared methods. 130 </p> 131 </div> 132 133 <!--=================Experiments==========================--> 134 <div class="section Evaluation & Results" , id="Evaluation & Results"> 135 <h2>Evaluation & Results</h2> 136 <p style="text-align:justify"> 137 We conduct multiple ablation studies to validate the impact of our proposed work in our FPVT modules. 138 Table. 1 and Table 2 present the results of CNNs, pure ViTs, and Convolutional ViTs on seven datasets. 139 PVT (referred to as baseline) is a standard pure pyramid transformer without convolution. 140 We choose PVT as a baseline due to two main reasons i) it generates multi-scale features 141 ii) the number of parameters is larger than ResNet18. 142 The introduction of the IPE block leads to a gain of 1% in terms of performance, highlighting the 143 impact of convolutional tokens. IPE block improves the performance on LFW from 78.8% to 82.9%, 144 CFP_FF from 75.2% to 85.5%, CFP_FP from 52.9% to 65.6%, AgeDB from 59.9% to 65.6%, CALFW from 145 66.8% to 70.1%, and CPLFW from 55.1% to 59%. 146 </p> 147 <div id="img_intro_examples" class="img_container"> 148 <center><img src="./figs/table2.png" border="0" width="70%"></center> 149 <br> 150 <p style="text-align:justify"> 151 Table 1: Evaluation results on CFP_FF, CFP_FP and VGG2_FP. The top first three models 152 lists the results of the CNN models, while the mid-block presents the performance of pure 153 ViTs architectures. The third block shows the results of Conv. ViTs models. 154 </p> 155 </div> 156 <br /> 157 <br /> 158 <div id="img_intro_examples" class="img_container"> 159 <center><img src="./figs/table1.png" border="0" width="55%"></center> 160 <br> 161 <p style="text-align:justify"> 162 Table 2: Evaluation results on LFW, CALFW, CPLFW and AgeDB: Comparison with FPVT, CNNs, PureViTs and 163 Convolutional ViTs methods. The top first three models represents the results of most representative 164 CNN models, while the mid block indicates the performance of pure ViTs architectures. The third 165 block shows the results of Conv. ViTs models 166 </p> 167 </div> 168 </div> 169 170 <!--=================Citation==========================--> 171 <div class="section Citation" , id="Citation"> 172 <h2>Citation</h2> 173 <div class="section bibtex"> 174<pre>@InProceedings{Khawar_BMVC22_FPVT, 175 author = {Khawar Islam, Muhammad Zaigham Zaheer, Arif Mahmood}, 176 title = {Face Pyramid Vision Transformer}, 177 booktitle = {Proceedings of the British Machine Vision Conference}, 178 year = {2022} 179}</pre> 180<pre>@inproceedings{islam2021face, 181 title={Face Recognition Using Shallow Age-Invariant Data}, 182 author={Islam, Khawar and Lee, Sujin and Han, Dongil and Moon, Hyeonjoon}, 183 booktitle={2021 36th International Conference on Image and Vision Computing New Zealand (IVCNZ)}, 184 pages={1--6}, 185 year={2021}, 186 organization={IEEE} 187}</pre> 188 </div> 189 </div> 190 191 <!--=================Contact==========================--> 192 <div class="section contact", id="Contact"> 193 <h2 id="contact">Contact</h2> 194 <p style="text-align:justify">If you have any question, please contact to Khawar Islam at 195 <strong>khawarr dot islam at gmail dot com</strong>.</p> 196 </div> 197</body> 198 199</html>
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