Transforming orthotopic liver transplantation: Innovative dry-lab simulation model in mice

He use of mouse liver transplantation models remains crucial for answering questions regarding organ transplantation, tissue-resident immunity and tumor biology. The learning curve for this complex procedure involves use of animals without creating scientific output. We present a recipient mouse and donor liver model with realistic vessels for training in mouse liver transplantation, designed to reduce the number of animals needed during the training. A 3D-model of the liver, skeleton and vessels (vena cava, hepatic artery and portal vein) was created using computed tomography images of a real mouse and 3D-printing to simulate orthotopic liver transplantation. Microsurgical experts from multiple research groups evaluated this model for usability, procedural details, and on how well the materials mimicked the real tissue. We successfully created an artificial model featuring the mouse body, organs, and vessels needed for initial training in mouse liver transplantation. The evaluation found it to realistically mimic the confined space of the surgical site and determined that it could be used for vessel anastomoses with suturing and the cuff-technique. This simulation model enables a cost-effective approach for basic training in mouse liver transplantation that can easily be reproduced to reduce animal use in the training process.

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Publication Details

Journal
Current Problems in Surgery
Published
2025-10-17
DOI
https://doi.org/10.1016/j.cpsurg.2025.101920
Primary Topic
Organ Transplantation Techniques and Outcomes
Type
article
Field-Weighted Citation Impact
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article

Transforming orthotopic liver transplantation: Innovative dry-lab simulation model in mice

Nicola Colucci, Thilo Hackert, Hans Christian Schmidt, Gabriel Eduardo Gondolesi et al.
Current Problems in Surgery
Organ Transplantation Techniques and Outcomes
article

Transforming orthotopic liver transplantation: Innovative dry-lab simulation model in mice

Nicola Colucci, Thilo Hackert, Hans Christian Schmidt, Gabriel Eduardo Gondolesi, Baris Mercanoglu, Jun Oh, George Mazariegos, Blayne Amir Sayed, Emmanouil Giorgakis, Jakob R. Izbicki, Megan A. Adams, Petra Arck, Christian Tomuschat, Shinichiro Yokota, Dimitra E. Zazara, Graziano Oldani, Karl J. Oldhafer, Eleftherios Papazoglou, M. Bleszynski, Philipp Seeger, Panagis M. Lykoudis, Morgan Vandermeulen, Michael F. Nentwich, Anastasios D. Giannou, Kim C. Wagner, Ansgar Wilhelm Lohse, Felix Nickel, Morsal Sabihi, David Harriman, Angus W. Thomson, Tobias Dust, Dimitrios Moris, Alessandro Parente, Jöran Lücke, Anas Amin Preukschas, Ioannis A. Ziogas, Oliver Mann, Samuel Huber, Charles‐Henri Wassmer, Abdulrahman Al-Harazi, Jun Li, Tao Zhang, Ryosuke Nakano, Maja Segedi, Ane Miren Andrés Moreno, Rainer Grotelüschen, Stéphanie Chartier-Plante, Stephan Bennemann, Mitsufuji Suguru, Sasha Belenkov
article en

Abstract

He use of mouse liver transplantation models remains crucial for answering questions regarding organ transplantation, tissue-resident immunity and tumor biology. The learning curve for this complex procedure involves use of animals without creating scientific output. We present a recipient mouse and donor liver model with realistic vessels for training in mouse liver transplantation, designed to reduce the number of animals needed during the training. A 3D-model of the liver, skeleton and vessels (vena cava, hepatic artery and portal vein) was created using computed tomography images of a real mouse and 3D-printing to simulate orthotopic liver transplantation. Microsurgical experts from multiple research groups evaluated this model for usability, procedural details, and on how well the materials mimicked the real tissue. We successfully created an artificial model featuring the mouse body, organs, and vessels needed for initial training in mouse liver transplantation. The evaluation found it to realistically mimic the confined space of the surgical site and determined that it could be used for vessel anastomoses with suturing and the cuff-technique. This simulation model enables a cost-effective approach for basic training in mouse liver transplantation that can easily be reproduced to reduce animal use in the training process.

Current Problems in SurgeryVol. 73
University of Geneva (CH), University of British Columbia (CA), Sun Yat-sen University (CN), Universität Hamburg (DE), University of Pittsburgh (US), Georgetown University (US), MedStar Georgetown University Hospital (US), Hospital La Paz Institute for Health Research (ES), University Medical Center Hamburg-Eppendorf (DE), Sun Yat-sen University Cancer Center (CN), State Key Laboratory of Oncology in South China, University College London (GB)
Openalex Percentile: Top 54%
Organ Transplantation Techniques and Outcomes
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