Wide-field magneto-optical Kerr imaging that directly visualizes magnetic domain structure and domain-wall dynamics in real time, enabling immediate observation of magnetization reversal and hysteresis behavior.
This instrument is also shared with NTNU's Instrumentation Center.
Wide-field magneto-optical Kerr imaging that directly visualizes magnetic domain structure and domain-wall dynamics in real time, enabling immediate observation of magnetization reversal and hysteresis behavior.
This instrument is also shared with NTNU's Instrumentation Center.
High-resolution imaging of surface topography at the nanometer scale by scanning a sharp probe across the sample surface, revealing morphology, roughness, and fine surface features.
High-resolution imaging of surface topography at the nanometer scale by scanning a sharp probe across the sample surface, revealing morphology, roughness, and fine surface features.
Quantitative measurement of a sample's magnetic moment as a function of applied field and temperature, used to characterize hysteresis loops, saturation magnetization, and Curie temperature.
This instrument is co-managed with Prof. Fang-Yuh Lo's group and shared with NTNU's Instrumentation Center.
Quantitative measurement of a sample's magnetic moment as a function of applied field and temperature, used to characterize hysteresis loops, saturation magnetization, and Curie temperature.
This instrument is co-managed with Prof. Fang-Yuh Lo's group and shared with NTNU's Instrumentation Center.
Physical vapor deposition of thin films under ultra-high vacuum, using an electron beam to evaporate source materials for precise, contamination-free layer growth.
Physical vapor deposition of thin films under ultra-high vacuum, using an electron beam to evaporate source materials for precise, contamination-free layer growth.
Growth of thin films and 2D materials through gas-phase chemical reactions on a heated substrate, along with post-growth annealing to control crystallinity and material quality.
This system is operated in collaboration with Prof. Fang-Yuh Lo's group.
Growth of thin films and 2D materials through gas-phase chemical reactions on a heated substrate, along with post-growth annealing to control crystallinity and material quality.
This system is operated in collaboration with Prof. Fang-Yuh Lo's group.
Vibrational spectroscopy technique that probes molecular and lattice vibrations to identify material composition, crystal structure, strain, and layer number in low-dimensional materials.
This instrument is also shared with NTNU's Department of Physics.
Vibrational spectroscopy technique that probes molecular and lattice vibrations to identify material composition, crystal structure, strain, and layer number in low-dimensional materials.
This instrument is also shared with NTNU's Department of Physics.