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DTSTAMP:20220504T045842Z
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DESCRIPTION:- The Foothill/Orange County Jt. Sections Nanotechnology Counci
 l Chapter invites you to attend this event hosted also by the IEEE Student
  Chapter at Cal Poly Pomona\n\nAbstract: Camera technology has improved dr
 amatically over the years. Nowadays almost everyone owns a mega-pixel CMOS
  camera (in their phone)\, which produces high definition images and is a 
 fraction of the cost of the high-end cameras from just 10 years ago. Despi
 te the amazing capabilities of modern CMOS cameras\, they only work in the
  visible range of the spectrum. In other words\, these cameras cannot map 
 images in the infrared range of the spectrum\, beyond the spectral range o
 f our eyes. The infrared range is important for a lot of imaging applicati
 ons\, because fundamental molecular resonances occur in this spectra windo
 w\, which enables the generation of images with ‘chemical’ contrast. I
 nfrared cameras exist\, but they are noisy\, low definition and extremely 
 expensive. We have recently discovered a new method that turns a regular C
 MOS camera into an infrared imager. This optical method involves the simul
 taneous absorption of two photons by the silicon chip in the camera. This 
 approach offers an attractive and affordable way to rapidly record infrare
 d chemical images at high definition\, enabling a new range of infrared im
 aging applications\, including remote sensing\, biomedical imaging and 3D 
 visualization of printed circuits. In this presentation\, we will discuss 
 this new technology in the context of recent trends in optical imaging and
  illuminate career opportunities in the field of optics.\n\nSpeaker(s): Dr
 . Eric Potma\, \n\nVirtual: https://events.vtools.ieee.org/m/310205
LOCATION:Virtual: https://events.vtools.ieee.org/m/310205
ORGANIZER:zhenyu@cpp.edu
SEQUENCE:9
SUMMARY:How to turn a simple camera into an infrared imager
URL;VALUE=URI:https://events.vtools.ieee.org/m/310205
X-ALT-DESC:Description: <br /><ul class="list-unstyled">\n<li>The Foothill/
 Orange County Jt. Sections Nanotechnology Council Chapter invites you to a
 ttend this event hosted also by the IEEE Student Chapter at Cal Poly Pomon
 a</li>\n</ul>\n<p>Abstract: Camera technology has improved dramatically ov
 er the years. Nowadays almost everyone owns a mega-pixel CMOS camera (in t
 heir phone)\, which produces high definition images and is a fraction of t
 he cost of the &nbsp\;high-end cameras from just 10 years ago. Despite the
  amazing capabilities of modern CMOS cameras\, they only work in the visib
 le range of the spectrum. In other words\, these cameras cannot map images
  in the infrared range of the spectrum\, beyond the spectral range of our 
 eyes. The infrared range is important for a lot of imaging applications\, 
 because fundamental molecular resonances occur in this spectra window\, wh
 ich enables the generation of images with &lsquo\;chemical&rsquo\; contras
 t. Infrared cameras exist\, but they are noisy\, low definition and extrem
 ely expensive. We have recently discovered a new method that turns a regul
 ar CMOS camera into an infrared imager. This optical method involves the s
 imultaneous absorption of two photons by the silicon chip in the camera. T
 his approach offers an attractive and affordable way to rapidly record inf
 rared chemical images at high definition\, enabling a new range of infrare
 d imaging applications\, including remote sensing\, biomedical imaging and
  3D visualization of printed circuits. In this presentation\, we will disc
 uss this new technology in the context of recent trends in optical imaging
  and illuminate career opportunities in the field of optics.</p>
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