Rami Kristian Korhonen

This study shows that proteoglycan loss is less severe in the pericellular matrix than in the extracellular matrix in the middle zone of cartilage early after ACLT in rabbits.

This study develops a computational model to simulate collagen loss in cartilage after injury, showing that MMP release from damaged cells leads to significant collagen degradation.

This study develops a mechanoregulatory model to predict how mechanical loading affects glycosaminoglycan content in human cartilage, showing increased GAG production in damaged cartilage under physiological loading.

The paper develops a computational model to estimate how mechanoinflammatory mechanisms affect cartilage aggrecan content over time following joint injury.

This paper develops a computational model to simulate impact-induced cartilage damage, oxidative stress, and NAC treatment effects, showing NAC reduces proteoglycan loss by mitigating cell death and enzymatic depletion.

This study uses a rat model to assess joint and tissue mechanics in post-traumatic osteoarthritis, finding no increased mechanical loading in the medial compartment despite structural changes.

This paper develops a deep learning-based super-resolution method to enhance clinical CT image resolution for musculoskeletal and dental imaging, showing improved microstructural detail but with some artifacts and grayscale distribution changes.

The paper develops a deep learning segmentation method for analyzing calcified cartilage thickness using micro-CT and compares it to histology across rabbit knee regions.