Paper
12 September 2005 High speed nanotechnology-based photodetector
Russell M. Kurtz, Ranjit D. Pradhan, Alexander V. Parfenov, Jason Holmstedt, Vladimir Esterkin, Naresh Menon, Tin M. Aye, Kang-Bin Chua, Axel Schindler, Alexander A. Balandin, James E. Nichter
Author Affiliations +
Abstract
An inexpensive, easily integrated, 40 Gbps photoreceiver operating in the communications band would revolutionize the telecommunications industry. While generation of 40 Gbps data is not difficult, its reception and decoding require specific technologies. We present a 40 Gbps photoreceiver that exceeds the capabilities of current devices. This photoreceiver is based on a technology we call "nanodust." This new technology enables nanoscale photodetectors to be embedded in matrices made from a different semiconductor, or directly integrated into a CMOS amplification circuit. Photoreceivers based on quantum dust technology can be designed to operate in any spectral region, including the telecommunications bands near 1.31 and 1.55 micrometers. This technology also lends itself to normal-incidence detection, enabling a large detector size with its associated increase in sensitivity, even at high speeds and reception wavelengths beyond the capability of silicon.
© (2005) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Russell M. Kurtz, Ranjit D. Pradhan, Alexander V. Parfenov, Jason Holmstedt, Vladimir Esterkin, Naresh Menon, Tin M. Aye, Kang-Bin Chua, Axel Schindler, Alexander A. Balandin, and James E. Nichter "High speed nanotechnology-based photodetector", Proc. SPIE 5925, Nanophotonic Materials and Systems II, 59250T (12 September 2005); https://doi.org/10.1117/12.617888
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CITATIONS
Cited by 2 scholarly publications.
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KEYWORDS
Photodetectors

Quantum dots

Silicon

Sensors

Capacitance

Germanium

Telecommunications

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