C. Granerød

发表

The temperature-dependency of the optical band gap of ZnO measured by electron energy-loss spectroscopy in a scanning transmission electron microscope

A. Galeckas, Ø. Prytz, L. Vines, 2018 .

Controlling luminescence and quenching mechanisms in subnanometer multilayer structure of europium titanium oxide thin films

O. Nilsen, Ø. Prytz, P. Hansen, 2019, Journal of Luminescence.

Nanoscale mapping of optical band gaps using monochromated electron energy loss spectroscopy

Ø. Prytz, W. Zhan, A. Kuznetsov, 2017, Nanotechnology.

Structural and optical properties of individual Zn2GeO4 particles embedded in ZnO

Ø. Prytz, A. Azarov, B. Svensson, 2019, Nanotechnology.

Direct observation of conduction band plasmons and the related Burstein-Moss shift in highly doped semiconductors: A STEM-EELS study of Ga-doped ZnO

D. Look, Ø. Prytz, Yu-Feng Yao, 2018, Physical Review B.

Formation and functionalization of Ge-nanoparticles in ZnO

A. Galeckas, Ø. Prytz, A. Azarov, 2021, Nanotechnology.

Direct observation of spin-polarized bulk bands in an inversion-symmetric semiconductor

Timur K. Kim, H. Takagi, M. Michiardi, 2014, Nature Physics.

Highly Correlated Hydride Ion Tracer Diffusion in SrTiO3- xH x Oxyhydrides.

Takafumi D. Yamamoto, H. Kageyama, Xin Liu, 2019, Journal of the American Chemical Society.

Automated approaches for band gap mapping in STEM-EELS.

Ø. Prytz, W. Zhan, C. Granerød, 2017, Ultramicroscopy.

Evidence of defect band mechanism responsible for band gap evolution in (ZnO)1−x(GaN)x alloys

A. Galeckas, Ø. Prytz, C. Persson, 2019, Physical Review B.

Reply to Comment on ‘Nanoscale mapping of optical band gaps using monochromated electron energy loss spectroscopy’

Ø. Prytz, W. Zhan, A. Kuznetsov, 2018, Nanotechnology.

Reply to Comment on 'Nanoscale mapping of optical band gaps using monochromated electron energy loss spectroscopy'.

Ø. Prytz, W. Zhan, A. Kuznetsov, 2018, Nanotechnology.