M
Mohammed N. Islam
Researcher at University of Michigan
Publications - 257
Citations - 8241
Mohammed N. Islam is an academic researcher from University of Michigan. The author has contributed to research in topics: Laser & Optical fiber. The author has an hindex of 49, co-authored 255 publications receiving 7867 citations. Previous affiliations of Mohammed N. Islam include Bell Labs & Pabna University of Science & Technology.
Papers
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Patent
System and method for dispersion compensation in an optical communication system
Mohammed N. Islam,Amos Kuditcher +1 more
TL;DR: In this paper, an optical communication system includes a first end terminal comprising a first transponder operable to receive a first electrical signal and generate an optical signal based at least in part on the first electrical signals for communication to a multiple span communication link.
Journal ArticleDOI
Room‐temperature confinement and photoluminescence near 3 μm from HgCdTe multiple quantum wells
C. L. Cesar,Mohammed N. Islam,R. D. Feldman,R. Spitzer,R. F. Austin,A. E. DiGiovanni,Jagdeep Shah,J. Orenstein +7 more
TL;DR: In this article, the authors reported room temperature confinement and photoluminescence near 3 μm in a mercury cadmium telluride multiple quantum well, where the absorption spectra show transitions from the first heavy and light hole confined levels to the first conduction electron confined level.
Patent
Controlling ASE in optical amplification stages implementing time modulated pump signals
TL;DR: An optical amplifier includes at least one Raman amplification stage as mentioned in this paper, where one or more pump sources are operable to generate a plurality of pump signals capable of being delivered to a gain medium carrying an optical signal.
Patent
System and method for wide band raman amplification
TL;DR: In this paper, a multi-stage Raman amplifier with a first and a second Raman stage is presented, where the second stage has a second sloped gain profile that is approximately complementary slope to the slope of the first stage.
Journal ArticleDOI
Billiard-ball soliton interaction gates.
TL;DR: A cascadable, Boolean complete, conservative-logic interaction gate that is based on elastic collisions between temporal solitons in optical fibers, and it is found that each of two 17-pJsolitons is displaced after interaction by 3.5 pulse widths so as to increase the pulses' separation.