activity
20192022
most citedIncorporating Task-Specific Structural Knowledge into CNNs for Brain Midline Shift Detection

1 citations · 1 across the 5 of their papers we have counts for

collaborators

5 papers

eess.IV2022

Interpretable Vertebral Fracture Quantification via Anchor-Free Landmarks Localization

Alexey Zakharov, Maxim Pisov, Alim Bukharaev +4

Vertebral body compression fractures are early signs of osteoporosis. Though these fractures are visible on Computed Tomography (CT) images, they are frequently missed by radiologi…

eess.IV2020

CT-based COVID-19 Triage: Deep Multitask Learning Improves Joint Identification and Severity Quantification

Mikhail Goncharov, Maxim Pisov, Alexey Shevtsov +8

The current COVID-19 pandemic overloads healthcare systems, including radiology departments. Though several deep learning approaches were developed to assist in CT analysis, nobody…

eess.IV2020

Keypoints Localization for Joint Vertebra Detection and Fracture Severity Quantification

Maxim Pisov, Vladimir Kondratenko, Alexey Zakharov +4

Vertebral body compression fractures are reliable early signs of osteoporosis. Though these fractures are visible on Computed Tomography (CT) images, they are frequently missed by…

physics.med-ph2019

Discovery of Two Types of Twinkling Can Explain Contradictory Observations among Twinkling Artifact Investigators in Ultrasound Imaging

Denis Leonov, Nicholas Kulberg, Alexandr Gromov +2

Twinkling Artifact is a valuable tool in detecting dense objects such as kidney stones, calculi etc., especially when there is no acoustic shadowing and presence of hyperechogenic…

eess.IV2019★ 1 cited

Incorporating Task-Specific Structural Knowledge into CNNs for Brain Midline Shift Detection

Maxim Pisov, Mikhail Goncharov, Nadezhda Kurochkina +9

Midline shift (MLS) is a well-established factor used for outcome prediction in traumatic brain injury, stroke and brain tumors. The importance of automatic estimation of MLS was r…