Vinegoni, Claudio Lee, Sungon Fumene Feruglio, Paolo Weissleder, Ralph 2024-01-20T10:30:45Z 2024-01-20T10:30:45Z 2021-08-31 2014-03 1077-260X https://pubs.kist.re.kr/handle/201004/127073 Intravital microscopy has emerged in the recent decade as an indispensible imaging modality for the study of the microdynamics of biological processes in live animals. Technical advancements in imaging techniques and hardware components, combined with the development of novel targeted probes and new mice models, have enabled us to address long-standing questions in several biology areas such as oncology, cell biology, immunology, and neuroscience. As the instrument resolution has increased, physiological motion activities have become a major obstacle that prevents imaging live animals at resolutions analogue to the ones obtained in vitro. Motion compensation techniques aim at reducing this gap and can effectively increase the in vivo resolution. This paper provides a technical review of some of the latest developments in motion compensation methods, providing organ specific solutions. English IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC MOUSE SPINAL-CORD IN-VIVO 2-PHOTON MICROSCOPY HIGH-SPEED FLUORESCENCE MICROSCOPY CHAMBER TECHNIQUE IMAGING WINDOW RESOLUTION MICE ANIMALS Advanced Motion Compensation Methods for Intravital Optical Microscopy Article 10.1109/JSTQE.2013.2279314 1 IEEE JOURNAL OF SELECTED TOPICS IN QUANTUM ELECTRONICS, v.20, no.2 IEEE JOURNAL OF SELECTED TOPICS IN QUANTUM ELECTRONICS 20 2 scie scopus 000329997200007 2-s2.0-84977648688 Engineering, Electrical & Electronic Quantum Science & Technology Optics Physics, Applied Engineering Physics Optics Article MOUSE SPINAL-CORD IN-VIVO 2-PHOTON MICROSCOPY HIGH-SPEED FLUORESCENCE MICROSCOPY CHAMBER TECHNIQUE IMAGING WINDOW RESOLUTION MICE ANIMALS Intravital microscopy image stabilization in vivo imaging motion artifact and motion compensation