Optical microscopes have been around for centuries, and they have proved to be invaluable tools in understanding the world around us. However, they are limited by the diffraction of light, which restricts their spatial resolution. Fortunately, research at STROBE has enabled us to go beyond these limitations and venture into the deep sub-wavelength regime through the use of optical nano-probe imaging with infrared strobe lights.
What is STROBE?
STROBE (Science and Technology Research in Obervational and Behavioral Economics) is a National Science Foundation-funded Science and Technology Centre that focuses on developing and using ultrafast X-ray and optical science. Their research aims to improve our ability to see and understand the world at the atomic and molecular level.
How does Optical Nano-probe Imaging Work?
Optical Nano-probe Imaging is a technique that uses the scattering of light from nano-sized objects to obtain high-resolution images. The objects can range from molecules to tiny metal tips.
The resolution of Optical nano-probe imaging is determined by the size of the light wavelength used. STROBE's ultra-microscopes cover the wavelength range from the visible into the far-infrared, which allows them to probe from chemical composition to quantum states of materials.
What are the Benefits of STROBE's Optical Nano-probe Imaging?
STROBE's ultra-microscopes can achieve resolutions beyond the diffraction limit, making it possible to obtain high-resolution images of objects smaller than what traditional microscopes can observe.
Moreover, the use of infrared strobe lights in optical nano-probe imaging enables researchers to observe and study materials that are sensitive to visible light. Infrared lights can penetrate through materials that would normally absorb visible light, making it possible to study them without causing damage.
Applications of Optical Nano-probe Imaging with Infrared Strobe Lights
Optical Nano-probe Imaging has many applications in various fields such as chemistry, physics, and biotechnology. It can be used to study the structure of macromolecules, the dynamics of chemical reactions, and the properties of materials at the nanoscale level.
Moreover, the use of infrared strobe lights in Optical Nano-probe Imaging makes it possible to study biological samples without damaging them. This is crucial for studying living cells and tissues and can help unlock new knowledge in biology and medicine.
In Conclusion
Optical Nano-probe Imaging with Infrared Strobe Lights is a powerful tool that enables researchers to study materials and objects beyond the diffraction limit. The ability to see and understand the world at the atomic and molecular level has profound implications for various fields of research. With STROBE's ultra-microscopes, we can look forward to new discoveries and insights that will further our understanding of the world around us.