Attachment Anchors: A Novel Framework for Laparoscopic Grasping Point Prediction in Colorectal Surgery
Dennis N. Schneider, Lars Wagner, Daniel Rueckert, Dirk Wilhelm

TL;DR
This paper introduces attachment anchors, a structured representation for predicting grasping points in colorectal surgery, improving accuracy especially in unseen scenarios, and facilitating autonomous tissue manipulation.
Contribution
The paper proposes attachment anchors as a novel structured representation that encodes tissue and attachment relationships, enhancing grasping point prediction in colorectal surgery.
Findings
Attachment anchors improve grasping prediction accuracy.
Strong performance gains in out-of-distribution scenarios.
Attachment anchors are predicted from laparoscopic images.
Abstract
Accurate grasping point prediction is a key challenge for autonomous tissue manipulation in minimally invasive surgery, particularly in complex and variable procedures such as colorectal interventions. Due to their complexity and prolonged duration, colorectal procedures have been underrepresented in current research. At the same time, they pose a particularly interesting learning environment due to repetitive tissue manipulation, making them a promising entry point for autonomous, machine learning-driven support. Therefore, in this work, we introduce attachment anchors, a structured representation that encodes the local geometric and mechanical relationships between tissue and its anatomical attachments in colorectal surgery. This representation reduces uncertainty in grasping point prediction by normalizing surgical scenes into a consistent local reference frame. We demonstrate that…
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Taxonomy
TopicsSurgical Simulation and Training · Soft Robotics and Applications · Robot Manipulation and Learning
