Facial Landmark Detection
47 papers with code • 10 benchmarks • 16 datasets
Facial Landmark Detection is a computer vision task that involves detecting and localizing specific points or landmarks on a face, such as the eyes, nose, mouth, and chin. The goal is to accurately identify these landmarks in images or videos of faces in real-time and use them for various applications, such as face recognition, facial expression analysis, and head pose estimation.
( Image credit: Style Aggregated Network for Facial Landmark Detection )
Libraries
Use these libraries to find Facial Landmark Detection models and implementationsMost implemented papers
Towards Fine-grained Image Classification with Generative Adversarial Networks and Facial Landmark Detection
To encounter this problem, we made the best use of GAN-based data augmentation to generate extra dataset instances.
Facial Landmark Points Detection Using Knowledge Distillation-Based Neural Networks
We use two Teacher networks, a Tolerant-Teacher and a Tough-Teacher in conjunction with the Student network.
ACR Loss: Adaptive Coordinate-based Regression Loss for Face Alignment
Heatmap-based Regression (HBR) and Coordinate-based Regression (CBR) are among the two mainly used methods for face alignment.
Shape Preserving Facial Landmarks with Graph Attention Networks
Top-performing landmark estimation algorithms are based on exploiting the excellent ability of large convolutional neural networks (CNNs) to represent local appearance.
ArtFacePoints: High-resolution Facial Landmark Detection in Paintings and Prints
Facial landmark detection plays an important role for the similarity analysis in artworks to compare portraits of the same or similar artists.
KeyPosS: Plug-and-Play Facial Landmark Detection through GPS-Inspired True-Range Multilateration
By spearheading the integration of Multilateration with facial analysis, KeyPosS marks a paradigm shift in facial landmark detection.
STAR Loss: Reducing Semantic Ambiguity in Facial Landmark Detection
To solve this problem, we propose a Self-adapTive Ambiguity Reduction (STAR) loss by exploiting the properties of semantic ambiguity.