My name is Manige Razegi, Walter Pimofi Professor of Electrical Engineering at North Western University and the Director of Center for Quantum Device. The Center for Quantum Device is dedicated to conducting cutting edge atomic and gap engineering of the four semiconductor for electronic and photonic quantum devices from deep UV to teraiets. One of the key research areas of the Center is enabling human beings to see beyond their innate capability. Vision is one of the most developed human sense, but unfortunately nature allows human vision only in very small window and sees the discovery of infrared radiation in the 1800s. Scientists have been trying to develop methods to see this signal. However, current material systems and technologies have not made the increasing demand for higher performance. Talk to the industrial and geomotiminal superlates or transformative material systems being developed for the next generation of infrared detection and imaging. The synthetic structure consisting of multi quantum wells with a broken gap that are put next to each other and in track to create a small, effective gap suitable for infrared detection from one micron all the way to the teraiets. The synthetic quantum structure allows additional debut of reader, interlating the material properties. In this review paper, we will describe historical development and current status of talk to superlates for advanced detection and imaging. The talk to superlates camera is extremely complex and requires 100 of different steps. The security is unique in that we have all of the facilities and know how vertical integrated between a single center on the motor action. We do everything from the theory, design, growth, cocculation, processing, measurement and even the final system fabrication. We have developed a TBM simulation to guide our design of superlates. The material growth is done the molecular beam of the vaccine. We then crop-droits the material and even test devices before moving onto processing focal planaries. Focal planaries or artificial oils are fabricated from two components, an array of 100,000 even million of individual detectors that convert the infrared photons into electrons, similar to the eyes. An array of millions of silicon-based transistors that is read on integrated circuit which acts lock the brain. The finished FPA is then tested and put in a camera system such as this one. In 2003, my group at Nozveste demonstrated the world's first focal planaries camera based on top two superlates. And for the last ten years, the development of top two superlates has been a skyrocketing, reaching a technology level that Mercury can tell right to 50 years to reach. We have demonstrated a small, neat and even megapixel camera based on top two superlates. We have demonstrated camera operating in the short, neat, long and very long wavelength infrared. And more importantly, we have demonstrated two color combination of these wavelengths. This video shows hot water being put into a cup of cold water using a short mid-camera. This video shows a student holding a bon-pass filter of a flame using a mid-long camera. This video shows the same filter in front of a mid-format long-blown camera. This is just a small part of the development of top two superlates camera. And I encourage you to read our paper. I would also like to encourage everyone to go to our website. They are not just pioneering in top two superlates camera, but using two false semiconductors to make quantum devices spanning from the deep UV all the way up to terais. Finally, these results would not have been possible without the support and encouragement of the great scientists of the DOD, NASA, DHS, NSF as well as the greatest students. I would like to thank the OLEP for giving me the opportunity to share these results with you. Thank you.