MiTU-Net: A fine-tuned U-Net with SegFormer backbone for segmenting pubic symphysis-fetal head
Fangyijie Wang, Guenole Silvestre, Kathleen Curran

TL;DR
MiTU-Net is a novel deep learning model that automates fetal head and pubic symphysis segmentation in ultrasound images, enabling accurate and efficient angle of progression measurement to assist clinical decision-making.
Contribution
This paper introduces MiTU-Net, a transformer-based U-Net variant that improves segmentation accuracy and reduces parameters for fetal ultrasound analysis.
Findings
Achieves competitive segmentation performance, ranking 5th among tested methods.
Reduces training parameters significantly compared to traditional models.
Facilitates automatic AoP measurement, aiding clinical practice.
Abstract
Ultrasound measurements have been examined as potential tools for predicting the likelihood of successful vaginal delivery. The angle of progression (AoP) is a measurable parameter that can be obtained during the initial stage of labor. The AoP is defined as the angle between a straight line along the longitudinal axis of the pubic symphysis (PS) and a line from the inferior edge of the PS to the leading edge of the fetal head (FH). However, the process of measuring AoP on ultrasound images is time consuming and prone to errors. To address this challenge, we propose the Mix Transformer U-Net (MiTU-Net) network, for automatic fetal head-pubic symphysis segmentation and AoP measurement. The MiTU-Net model is based on an encoder-decoder framework, utilizing a pre-trained efficient transformer to enhance feature representation. Within the efficient transformer encoder, the model…
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Taxonomy
TopicsPelvic and Acetabular Injuries
MethodsAttention Is All You Need · Linear Layer · Dropout · Layer Normalization · Multi-Head Attention · Byte Pair Encoding · Residual Connection · Adam · Convolution · Softmax
