My main areas of research are medical image processing and cancer imaging. In medical image processing, my work was on artificial intelligence in image classification and segmentation, 3D visualization and 3D printing for presurgical planning. As for cancer imaging, I have most experience in breast and liver cancer.
In years 2020-2022, during my postdoc at NYU, my work was focused on the AI in breast cancer imaging. In the lab I've been working with all routine breast imaging modalities (mammography, tomosynthesis, ultrasound, MRI). I've been a project leader of breast cancer classification in MRI with convnets.
With other NYU team members, I participated and won the Digital Breast Tomosynthesis Lesion Detection Challenge, organized by the SPIE, the American Association of Physicists in Medicine (AAPM), the National Cancer Institute (NCI), and Duke AI in Radiology (DAIR). We summarized our results in a Nature Machine Intelligence paper. You can also find a story about this challenge on CAI2R website or a video of the winning entry, presented by project leader, Jungkyu Park.
My work is highly focused on clinical outcomes and translation of results to the clinical side - statistical versus clinical significance, integration with clinical workflow, societal impact. I work closely with breast imaging radiologists, including renowned Dr. Linda Moy, Dr. Laura Heacock and Dr. Beatriu Reig.
I managed and wrangled multi-million-item datasets of multimodal medical images and EHR for AI system development. This dataset has been used in our lab's work in all modalities, including mammography, tomosynthesis, ultrasound and MRI.
In August 2021 we published a meta-repository which combines international mammography datasets with state-of-the-art AI models for breast cancer classification. This is an open-source project and the code is publicly available on GitHub.
In years 2016-2020, during my MD/PhD program, I worked with a team of oncological surgeons at Jagiellonian University in Kraków to develop 3D printed anatomical models for preoperative planning. I invented a low-cost, reproducible method of 3D printing full-sized, multicolor liver models for planning laparoscopic liver resections. In my publications, I validated the accuracy of those models and later ran a prospective pilot study to measure clinical feasibility and importance. As a result of those papers, I've confirmed that 3D printed liver models are accurate enough to be used in the clinical practice, and their use in preoperative planning can make meaningful changes in the surgery plan in every 4th patient. My work also made an impact on developing RSNA's guidelines for clinical 3D printing.
My method of 3D printing liver models has been covered in Polish and international media:
I have recorded tutorials on YouTube for 3D Slicer, an open-source software designed for medical image processing, that have been watched over 50,000 times. I have trained tens of researchers worldwide in using 3D Slicer for image analysis, including medical segmentation and more. Occasionally, I am a speaker during lectures, workshops, conferences etc. on medical imaging and new technologies in medicine, such as 3D printing or artificial intelligence. During my postdoc, I supervised work of three MS students at Harvard & NYU.