4.8 Review

Sensing Infrared Photons at Room Temperature: From Bulk Materials to Atomic Layers

Journal

SMALL
Volume 15, Issue 46, Pages -

Publisher

WILEY-V C H VERLAG GMBH
DOI: 10.1002/smll.201904396

Keywords

2D materials; atomic layers; infrared photodetectors; photon detectors; room temperature

Funding

  1. National Natural Science Foundation of China [61725505, 11734016, 61905266, 31900748, 11574336, 61674157]
  2. Key Research Project of Frontier Science of CAS [QYZDB-SSW-JSC031]
  3. Program of Shanghai Subject Chief Scientist [19XD1404100]
  4. Shanghai Sailing Program [19YF1454600]
  5. Youth Innovation Promotion Association CAS [2018276]
  6. Natural Science Foundation of Shanghai [18ZR1445800, 18ZR1445900]
  7. Shanghai Science and Technology Foundations [18JC142040]

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Room-temperature operating means a profound reduction of volume, power consumption, and cost for infrared (IR) photodetectors, which promise a wide range of applications in both military and civilian areas, including individual soldier equipment, automatic driving, etc. Inspired by this fact, since the beginning of 1990s, great efforts have been made in the development of uncooled thermal detectors. During the last two decades, similar efforts have been devoted using IR photon detectors, especially based on photovoltaic effects. Herein, the proven technologies, which have been commercialized with a large format, like InGaAs/InP pin diodes, InAsSb barrier detectors, and high-operating-temperature HgCdTe devices, are reviewed. The newly developed technology is emphasized, which has shown unique superiority in detecting mid-wavelength and long-wavelength IR signals, such as quantum cascade photodetectors. Finally, brand-new concept devices based on 2D materials are introduced, which are demonstrated to provide additional degrees of freedom in designing and fabricating room-temperature IR devices, for example, the construction of multi-heterojunctions without introducing lattice strain, the convenient integration of optical waveguides and electronic gratings. All information provided here aims to supply a full view of the progress and challenges of room-temperature IR detectors.

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