| Segmenting Cardiac Ultrasound Videos Using Self-Supervised Learning |
Brain Imaging and Artificial Intelligence |
|
IEEE Xplore |
|
Helge Rhodin |
| Tominersen in Adults with Manifest Huntington’s Disease |
Molecular, Cellular and Eye, Ophthalmic Imaging for Eye and Brain Disease |
|
New Eng. J. Med |
|
Blair Leavitt |
| A graph-based approach can improve keypoint detection of complex poses: a proof-of-concept on injury occurrences in alpine ski racing |
Brain Imaging and Artificial Intelligence |
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Sci. Rep. |
|
Helge Rhodin |
| Deep Learning-Enabled MS/MS Spectrum Prediction Facilitates Automated Identification Of Novel Psychoactive Substances |
Molecular, Cellular and Eye |
|
Anal. Chem. |
|
Leonard Foster |
| Eye movements in Parkinson’s disease: from neurophysiological mechanisms to diagnostic tools |
Brain Imaging and Artificial Intelligence |
|
TINS |
|
Miriam Spering |
| Leishmania infection upregulates and engages host macrophage Argonaute 1, and system-wide proteomics reveals Argonaute 1-dependent host response |
Molecular, Cellular and Eye |
|
Front. Immunol. |
|
Leonard Foster |
| Implementing digital emergency medicine: a call to action |
Brain Imaging and Artificial Intelligence |
|
CJEM |
|
Kendall Ho |
| Antisense oligonucleotides targeting the miR-29b binding site in the GRN mRNA increase progranulin translation |
Molecular, Cellular and Eye, Ophthalmic Imaging for Eye and Brain Disease |
|
JBC |
|
Blair Leavitt |
| Evidence of factors influencing delays in the diagnosis and treatment of bipolar disorder in adolescents and young adults. Protocol for a systematic scoping review |
Brain Imaging and Artificial Intelligence |
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PLoS One |
|
Kamyar Keramatian |
| Identification of Emerging Novel Psychoactive Substances by Retrospective Analysis of Population-Scale Mass Spectrometry Data Sets |
Molecular, Cellular and Eye |
|
Anal Chem |
|
Leonard Foster |