Amine Yamlahi
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Amine Yamlahi has a total of 28 co-authors. Here are the top co-authors by number of shared publications:
Lena Maier-Hein
German Cancer Research Center (DKFZ)
4 shared publicationsPatrick Godau
German Cancer Research Center (DKFZ)
3 shared publicationsDominik Michael
German Cancer Research Center (DKFZ)
2 shared publicationsFinn-Henri Smidt
German Cancer Research Center (DKFZ)
2 shared publicationsMelanie Schellenberg
German Cancer Research Center (DKFZ)
2 shared publicationsMinu Dietlinde Tizabi
German Cancer Research Center (DKFZ)
2 shared publications
Latest Publications
- 25 September 2026
- Published by Springer Nature
- p. 134-144
EdgeCVS: Democratization of Surgical AI with a Distilled Edge-Deployable Critical View of Safety (CVS) Model
- 25 September 2026
- Published by Springer Nature
- p. 134-144
EdgeCVS: Democratization of Surgical AI with a Distilled Edge-Deployable Critical View of Safety (CVS) Model
- 21 September 2025
- Published by Springer Nature
- p. 522-531
Smarter Self-distillation: Optimizing the Teacher for Surgical Video Applications
- 21 September 2025
- Published by Springer Nature
- p. 522-531
Smarter Self-distillation: Optimizing the Teacher for Surgical Video Applications
- 1 October 2023
- Published by Springer Nature
- p. 637-646
Self-distillation for Surgical Action Recognition
- 1 October 2023
- Published by Springer Nature
- p. 637-646
Self-distillation for Surgical Action Recognition
- Open Access
Self-distillation for surgical action recognition
Surgical scene understanding is a key prerequisite for contextaware decision support in the operating room. While deep learning-based approaches have already reached or even surpassed human performance in various fields, the task of surgical action recognition remains a major challenge. With this contribution, we are the first to investigate the concept of self-distillation as a means of addressing class imbalance and potential label ambiguity in surgical video analysis. Our proposed method is a heterogeneous ensemble of three models that use Swin Transfomers as backbone and the concepts of self-distillation and multi-task learning as core design choices. According to ablation studies performed with the CholecT45 challenge data via cross-validation, the biggest performance boost is achieved by the usage of soft labels obtained by self-distillation. External validation of our method on an independent test set was achieved by providing a Docker container of our inference model to the challenge organizers. According to their analysis, our method outperforms all other solutions submitted to the latest challenge in the field. Our approach thus shows the potential of self-distillation for becoming an important tool in medical image analysis applications.
Open AccessSelf-distillation for surgical action recognition
Surgical scene understanding is a key prerequisite for contextaware decision support in the operating room. While deep learning-based approaches have already reached or even surpassed human performance in various fields, the task of surgical action recognition remains a major challenge. With this contribution, we are the first to investigate the concept of self-distillation as a means of addressing class imbalance and potential label ambiguity in surgical video analysis. Our proposed method is a heterogeneous ensemble of three models that use Swin Transfomers as backbone and the concepts of self-distillation and multi-task learning as core design choices. According to ablation studies performed with the CholecT45 challenge data via cross-validation, the biggest performance boost is achieved by the usage of soft labels obtained by self-distillation. External validation of our method on an independent test set was achieved by providing a Docker container of our inference model to the challenge organizers. According to their analysis, our method outperforms all other solutions submitted to the latest challenge in the field. Our approach thus shows the potential of self-distillation for becoming an important tool in medical image analysis applications.
- Open Access
- 23 May 2022
- Published by Springer Nature in International Journal of Computer Assisted Radiology and Surgery
- Vol. 17 (9) , 1633-1641
Deep learning-based classification of DSA image sequences of patients with acute ischemic stroke
Purpose: Recently, a large number of patients with acute ischemic stroke benefited from the use of thrombectomy, a minimally invasive intervention technique for mechanically removing thrombi from the cerebrovasculature. During thrombectomy, 2D digital subtraction angiography (DSA) image sequences are acquired simultaneously from the posterior-anterior and the lateral view to control whether thrombus removal was successful, and to possibly detect newly occluded areas caused by thrombus fragments split from the main thrombus. However, such new occlusions, which would be treatable by thrombectomy, may be overlooked during the intervention. To prevent this, we developed a deep learning-based approach to automatic classification of DSA sequences into thrombus-free and non-thrombus-free sequences. Methods: We performed a retrospective study based on the single-center DSA data of thrombectomy patients. For classifying the DSA sequences, we applied Long Short-Term Memory or Gated Recurrent Unit networks and combined them with different Convolutional Neural Networks used as feature extractor. These network variants were trained on the DSA data by using five-fold cross-validation. The classification performance was determined on a test data set with respect to the Matthews correlation coefficient (MCC) and the area under the curve (AUC). Finally, we evaluated our models on patient cases, in which overlooking thrombi during thrombectomy had happened. Results: Depending on the specific model configuration used, we obtained a performance of up to 0.77 $$\mid $$ 0.94 for the MCC $$\mid $$ AUC, respectively. Additionally, overlooking thrombi could have been prevented in the reported patient cases, as our models would have classified the corresponding DSA sequences correctly. Conclusion: Our deep learning-based approach to thrombus identification in DSA sequences yielded high accuracy on our single-center test data set. External validation is now required to investigate the generalizability of our method. As demonstrated, using this new approach may help reduce the incident risk of overlooking thrombi during thrombectomy in the future.- 23 May 2022
- Published by Springer Nature in International Journal of Computer Assisted Radiology and Surgery
- Vol. 17 (9) , 1633-1641
Open AccessDeep learning-based classification of DSA image sequences of patients with acute ischemic stroke
Purpose: Recently, a large number of patients with acute ischemic stroke benefited from the use of thrombectomy, a minimally invasive intervention technique for mechanically removing thrombi from the cerebrovasculature. During thrombectomy, 2D digital subtraction angiography (DSA) image sequences are acquired simultaneously from the posterior-anterior and the lateral view to control whether thrombus removal was successful, and to possibly detect newly occluded areas caused by thrombus fragments split from the main thrombus. However, such new occlusions, which would be treatable by thrombectomy, may be overlooked during the intervention. To prevent this, we developed a deep learning-based approach to automatic classification of DSA sequences into thrombus-free and non-thrombus-free sequences. Methods: We performed a retrospective study based on the single-center DSA data of thrombectomy patients. For classifying the DSA sequences, we applied Long Short-Term Memory or Gated Recurrent Unit networks and combined them with different Convolutional Neural Networks used as feature extractor. These network variants were trained on the DSA data by using five-fold cross-validation. The classification performance was determined on a test data set with respect to the Matthews correlation coefficient (MCC) and the area under the curve (AUC). Finally, we evaluated our models on patient cases, in which overlooking thrombi during thrombectomy had happened. Results: Depending on the specific model configuration used, we obtained a performance of up to 0.77 $$\mid $$ 0.94 for the MCC $$\mid $$ AUC, respectively. Additionally, overlooking thrombi could have been prevented in the reported patient cases, as our models would have classified the corresponding DSA sequences correctly. Conclusion: Our deep learning-based approach to thrombus identification in DSA sequences yielded high accuracy on our single-center test data set. External validation is now required to investigate the generalizability of our method. As demonstrated, using this new approach may help reduce the incident risk of overlooking thrombi during thrombectomy in the future.