Publications of Nikolaus Weiskopf

Lipp, I.; Kirilina, E.; Jäger, C.; Morawski, M.; Jauch, A.; Pine, K.; Edwards, L.; Helbling, S.; Rose, D.; Helms, G. et al.; Eichner, C.; Deschner, T.; Graessle, T.; EBC Consortium; Gunz, P.; Anwander, A.; Friederici, A. D.; Wittig, R. M.; Crockford, C.; Weiskopf, N.: Lifespan trajectory of chimpanzee brains characterized by magnetic resonance imaging histology. bioRxiv (2024)

Helbling, S.; Meyer, S. S.; Weiskopf, N.: Myelin-informed forward models for M/EEG source reconstruction. bioRxiv (2024)

Dresbach, S.; Gulban, O. F.; Steinbach, T.; Eck, J.; Kashyap, S.; Kaas, A.; Weiskopf, N.; Goebel, R.; Huber, R.: Laminar CBV and BOLD response-characteristics over time and space in the human primary somatosensory cortex at 7T. bioRxiv (2024)

Attar, F. M.; Kirilina, E.; Edwards, L.; Haenelt, D.; Pine, K.; Trampel, R.; Chaimow, D.; Weiskopf, N.: Connectivity at fine scale: Mapping structural connective fields by tractography of short association fibres in vivo. bioRxiv (2024)

Dresbach, S.; Huber, R.; Gulban, O. F.; Pizzuti, A.; Trampel, R.; Ivanov, D.; Weiskopf, N.; Goebel, R.: Characterisation of laminar and vascular spatiotemporal dynamics of CBV and BOLD signals using VASO and ME-GRE at 7T in humans. bioRxiv (2024)

Grasse, T.; Jäger, C.; Kirilina, E.; Jaffe, J. E.; Carlier, P.; Pizarro, A.; Jauch, A.; Reimann, K.; Lipp, I.; Wittig, R. M. et al.; Crockford, C.; Weiskopf, N.; Leendertz, F.; Morawski, M.: Neuroinfectiology of an atypical anthrax-causing pathogen in wild chimpanzees. bioRxiv (2023)

Haenelt, D.; Chaimow, D.; Nasr, S.; Weiskopf, N.; Trampel, R.: Decoding of columnar-level organization across cortical depth using BOLD- and CBV-fMRI at 7 T. bioRxiv (2023)

Helms, G.; Weiskopf, N.; Lutti, A.: Correction of FLASH-based MT saturation in human brain for residual bias of B1-inhomogeneity at 3T. arXiv (2021)

Thierbach, K.; Bazin, P.-L.; De Back , W.; Gavriilidis, F.; Kirilina, E.; Jäger, C.; Morawski, M.; Geyer, S.; Weiskopf, N.; Scherf, N.: Combining deep learning and active contours opens the way to robust, automated analysis of brain cytoarchitectonics. bioRxiv (2018)