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InGaAs monolithic interconnected modules (MIM)
Author(s) -
Navid S. Fatemi,
Phillip P. Jenkins,
Victor G. Weizer,
R. W. Hoffman,
David M. Wilt,
David Scheiman,
D.J. Brinker,
Christopher S. Murray,
David R. Riley
Publication year - 1997
Publication title -
osti oai (u.s. department of energy office of scientific and technical information)
Language(s) - English
Resource type - Reports
DOI - 10.2172/296641
Subject(s) - thermophotovoltaic , common emitter , optoelectronics , materials science , substrate (aquarium) , reflector (photography) , optics , electrical engineering , physics , engineering , light source , oceanography , geology
Four major components of a thermophotovoltaic (TPV) energy conversion system are a heat source, a graybody or a selective emitter, spectrum shaping elements such as filters, and photovoltaic (PV) cells. One approach to achieving a high voltage/low current configuration is to fabricate a device, where small area PV cells are monolithically series connected. The authors have termed this device a monolithic interconnected module (MIM). A MIM device has other advantages over conventional one-junction cells, such as simplified array interconnections and heat-sinking, and radiation recycling capability via a back surface reflector (BSR). The authors confine the contents of this article to the MIM materials, process development, and some optical results. The successful fabrication of InGaAs/InP MIM devices entails the development and optimization of several key components and processes. These include: isolation trench via geometry, selective chemical etching, contact and interconnect metallization, dielectric isolation barrier, back surface reflector (BSR), and anti-reflection (AR) coating. The selection, development, and testing of the materials and processes described above for MIM fabrication will be described

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