Professor Arthur James Lowery
BSc (Hons) Dunelm, PhD (Nottingham),
Fellow IEEE, Fellow IET, Fellow ATSE
(Australian Academy of Technological
Sciences and Engineering)
Head, Department
of Electrical and Computer Systems
Engineering, Monash University,
Clayton
CTO, Ofidium Pty Ltd (www.ofidium.com)
(
Press Release)
Recent Prizes and Honours:
- January 2009, Elected as a Fellow
of the IEEE
(Institute of Electrical and Electronic
Engineers, USA) for "leadership in
computer modelling of optical
communication systems"
- November 2007, Elected to be a
Fellow ATSE
(Australian Academy of Technological
Sciences and Engineering) (Press
Release)
- April 2007: Clunies Ross
Award “For excellence in the
application of science and technology,
for the economic benefit of
Australia>”, awarded by the
Australian Academy of Technological
Sciences and Engineering (ATSE)
Monash
Memo Story also Video
with details of my research courtesy of
ATSE
- June 2006: Peter Doherty Prize
for Innovation (with Jean
Armstrong). Awarded $100,000 for
“Faster Optical Communications Optical Orthogonal
Frequency Division Multiplexing”
at Commercialization Expo,
Melbourne, 2006. We also won the ICT
Prize and the ANZA Technology Award at
the same event. Monash
Memo Story
Latest Publications
(2009):
- A. J. Lowery, "Reducing
Cyclic Prefix Overhead in
Optical OFDM Systems,"
European Conference on Optical
Communications, (ECOC 2009),
Vienna, Austria, paper
1.3.4
- Liang B. Du, A. J. Lowery,
" Fiber
Nonlinearity Compensation for
CO-OFDM Systems with Periodic
Dispersion Maps
," Optical Fiber
Telecommunications (OFC 2009),
San Diego, CA, paper
OTuO1
- Brendon J. C. Schmidt,
Arthur J. Lowery and Liang B.
Du , " Low
Sample Rate Transmitter for
Direct-Detection Optical
OFDM" Optical Fiber
Telecommunications (OFC 2009),
San Diego, CA, paper OWM4
- Postdeadline
Brendon J. C. Schmidt,
Zuraidah Zan, Liang B. Du and
Arthur J. Lowery, " 100
Gbit/s Transmission using
Single-Band Direct-Detection
Optical OFDM", Optical
Fiber Telecommunications (OFC
2009), San Diego, CA, paper
PDPC3 (a more detailed J.
Lightwave Technology will
appear in 2010)
- Brendon J. C. Schmidt,
Arthur James Lowery, and Jean
Armstrong, "Impact
of PMD in Single-Receiver and
Polarization-Diverse
Direct-Detection Optical
OFDM", J. Lightwave
Technology, vol. 27, No. 14,
July 15, 2009, pp.
2792-2799
Papers on noise and its
mitigation for optical OFDM
systems (and a full paper on our
experimental
demonstrations):
- A. J. Lowery, "Improving
sensitivity and spectral
efficiency in direct-detection
OFDM lightwave
systems," Optical
Fiber Telecommunications (OFC
2008), San Diego, paper
OMM4
- Zuraidah Zan, Malin
Premaratne and A. J. Lowery, "
Laser RIN and linewidth
requirements for direct
detection optical OFDM,"
Conference on Lasers and
Electro-Optics (CLEO 2008),
San Jose, May 2008, paper
CWN2
- A. J. Lowery, "Amplified-spontaneous
noise limit of optical OFDM
lightwave systems,"
Opt. Express 16, 860-865
(2008)
- B. Schmidt, A.J. Lowery
and Jean Armstrong,
"Experimental Demonstrations
of Electronic Dispersion
Compensation for Long-Haul
Transmission Using
Direct-Detection Optical
OFDM", J. Lightwave
Technology, Volume 26, Issue
1, Jan.1, 2008 Page(s):196 -
203
Papers on fiber
nonlinearity and its compensation
for optical OFDM systems:
- Liang B. Du, A. J. Lowery,
" Fiber
Nonlinearity Compensation for
CO-OFDM Systems with Periodic
Dispersion Maps
," Optical Fiber
Telecommunications (OFC 2009),
San Diego, paper OTuO1
- Liang B. Du and A. J.
Lowery, "
Improved nonlinearity
precompensation for long-haul
high-data-rate transmission
using coherent optical OFDM
," Opt. Express
16(24), 19920-19925
(2008)
- L. B. Du and A. J. Lowery,
"Improving nonlinear
precompensation in
direct-detection optical OFDM
communications systems,"
Presented at the European
Conference on Optical
Communications (ECOC),
Brussels, Sept. 2008, paper P.
4.08.
- A. J. Lowery, "Fiber
nonlinearity and its
compensation in
direct-detection optical OFDM
systems" (Invited)
Workshop on multi-tone
transmission techniques for
optical networks, European
Conference on Optical
Communications (ECOC),
Brussels, Sept. 2008
- Hu Chen, L. B. Du and A.
J. Lowery, "Compatibility
of Optical OFDM and NRZ in WDM
Communication Links,"
Joint Opto-Electronics and
Communications Conference
(OECC) and the Australian
Conference on Optical Fibre
Technology (ACOFT), Sydney,
July 2008.
http://www.iceaustralia.com/OECC_ACOFT2008/index.html
- L. B. Du and A. J. Lowery,
"Fiber
nonlinearity precompensation
for long-haul links using
direct-detection optical
OFDM," Opt. Express
16, 6209-6215 (2008)
- A. J. Lowery, S. Wang, and
M. Premaratne, "Calculation
of power limit due to fiber
nonlinearity in optical OFDM
systems," Opt.
Express 15, 13282-13287
(2007)
- A. J. Lowery, "Fiber
nonlinearity pre- and
post-compensation for
long-haul optical links using
OFDM," Opt.
Express 15, 12965-12970
(2007)
- A. J. Lowery, "Fiber
nonlinearity mitigation in
optical links that use OFDM
for dispersion
compensation,"
Photonics Technology Letters,
IEEE, vol. 19, pp. 1556-1558,
2007.
Invited Papers and Keynote
Speeches
- A. J. Lowery "Optical
Orthogonal Frequency Division
Multiplexing: the story so
far....", Keynote Speech,
International Symposium on
Global Optical Infrastructure
Technologies towards the Next
Decades (A New Horizon of
Innovations in Optical
Communications Technologies),
Wed 12th Nov. 2008, organised
by NiCT, Tokyo, Japan
- A. J. Lowery "Electronic
Dispersion Compensation and
Optical OFDM", Keynote Speech,
opening of Malaysia Photonics
2008, Kuala Lumpar, Malaysia,
August 2008.
- A. J. Lowery, "Optical
OFDM," Invited Talk,
Conference on Lasers and
Electro-Optics (CLEO 2008),
San Jose, May 2008, paper
CWN1
- Invited Tutorial at ECOC
2007 (Berlin): Adaptation
of Orthogonal Frequency
Division Multiplexing, OFDM,
to Compensate Impairments in
Optical Transmission
Systems
Experimental results for
direct-detection OFDM for
long-haul systems:
- OFC Postdeadline
PDPC3 Brendon J. C.
Schmidt, Zuraidah Zan, Liang
B. Du and Arthur J. Lowery, "
100
Gbit/s Transmission using
Single-Band Direct-Detection
Optical OFDM", Optical
Fiber Telecommunications (OFC
2009), San Diego, CA, paper
PDPC3 (a more detailed J.
Lightwave Technology will
appear in 2010)
- Brendon J. C. Schmdt, A.
J. Lowery, Liang B. Du, "
Low
Sample Rate Transmitter for
Direct-Detection Optical
OFDM ," Optical
Fiber Telecommunications (OFC
2009), San Diego, paper
OWM4
- OFC Postdeadline
PDP18, Brendon Schmidt,
Arthur Lowery, Jean
Armstrong, "Experimental
Demonstrations of 20 Gbit/s
Direct-Detection Optical OFDM
and 12 Gbit/s with a colorless
transmitter"
Optical Fiber
Communications, OFC2007,
Anaheim, (Please cite the J.LT
below as it is easier to
access....)
- Brendon Schmidt, Arthur
Lowery, Jean Armstrong,
"Experimental
Demonstrations of Electronic
Dispersion Compensation for
Long-Haul Transmission Using
Direct-Detection Optical
OFDM", Journal of
Lightwave Technology, vol.
26(1), Jan. 2008. pp.
196-203
Early Long-Haul Optical
OFDM Papers
- A. J. Lowery, L. Du, and
J. Armstrong, "Performance
of Optical OFDM in
Ultralong-Haul WDM Lightwave
Systems" Journal of
Lightwave Technology, Vol.
25(1), Jan 2007 pp.
131-138
- A. J. Lowery and J.
Armstrong, "Orthogonal
frequency division
multiplexing for dispersion
compensation of long-haul
optical systems",
Optics Express. Vol. 14, 2006,
pp. 2079-2084 (2006)
- Invited A. J.
Lowery and J. Armstrong,
"Orthogonal-Frequency-Division
Multiplexing for Optical
Dispersion
Compensation" Optical
Fiber Communications, OFC
2007, paper OTuA4
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Arthur Lowery is an engineer, innovator and
educator with a proven success record transforming
ground breaking technical innovations into
successful international businesses. His core
competencies in management of research and
development, communications technology,
intellectual property management, export marketing,
and innovative teaching. He has a proven track
record launching Australian businesses in US and
Europe , and has extensive contacts in the global
scientific and technical business communities.
Arthur built the global Photonic Design
Automation (PDA) industry from his fundamental
research in semiconductor laser modeling (see
http://www.vpiphotonics.com
). In 1996 he founded Virtual Photonics Pty Ltd
(later Inc) with Phil Gurney, to commercialise
OPALS, a software tool for designing optical
communications devices and circuits. In 1997 GOLD
was launched to an enthusiastic and rapidly-growing
market. GOLD (Gigabit Optical Link Designer) was
developed in a joint project with Telstra and the
University of Melbourne. Phil and Arthur merged
Virtual Photonics Inc with BNeD Inc, a competitor
out of the Heinrich Hertz Institute (Berlin) that
had obtained government funding and VC money, to
form VPI Virtual Photonics Inc in late 1998 (known
in the industry as VPI). VPI has grown by
technology acquisition and internal development to
be the leading supplier of design tools for
communication components, systems and networks (see
www.vpisystems.com
and www.vpiphotonics.com ). VPI boasts 150
corporations as customers and VPI’s software
tools are used by over 130 universities for
research and teaching. Free software tools are
available for teaching at http://www.vpiphotonics.com/VPIplayer.php.
Arthur was appointed Chair of Electrical and
Computer Systems Engineering, at Monash
University (15 km SE of Melbourne City) in
September 2004 ( www.ecse.monash.edu.au)
In 2008, Arthur founded Ofidium Pty Ltd,
(www.ofidium.com)
which secured A$6M of funding in March 2009
(Press
Release).
His research interests include:
Arthur's publications list can be found
here
(with downloads).
Arthur is currently seeking PhD students to help
create new global industries from high-tech
research. He can be contacted at Arthur.lowery@eng.monash.edu.au
Just
for fun: hear what lasers and optical systems sound
like!
Arthur has transposed the outputs of computer
simulations into audio
files. These reveal the fascinating spectral
dynamics of lasers and systems.
The simulations were 'performed' using
VPIsystems' VPItransmissionMaker and
VPIcomponentMaker products. VPIcomponentMaker is
based on Arthur's early work on time-domain
modeling of semiconductor lasers (the Transmission
Line Laser Model, TLLM), which is widely used for
active photonic circuit design and is often called
the time-domain model of lasers.
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