MAYA A TROTZ

Dr. MAYA A TROTZ


Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 July 2010 in Applied Catalysis B: Environment and Energy
Verified
Journal Article
Closed access
ODOmatoyo K. Dalrymple
Omatoyo K. Dalrymple
ESElias Stefanakos
Elias Stefanakos
MTMAYA A TROTZ
MAYA A TROTZ
DGD. Yogi Goswami
D. Yogi Goswami

12 January 2007 in Journal of Chemical Technology & Biotechnology
Verified
Journal Article
Closed access
PDF file
ODOmatoyo K Dalrymple
Omatoyo K Dalrymple
DYDaniel Yeh
Daniel Yeh
MTMAYA A TROTZ
MAYA A TROTZ

31 August 2001 in Environmental Science & Technology
Verified
Journal Article
Closed access
MVMario Villalobos
Mario Villalobos
MTMAYA A TROTZ
MAYA A TROTZ
JLJames O. Leckie
James O. Leckie

16 November 2010 in Environmental Monitoring and Assessment
Verified
Journal Article
Closed access
PDF file
JHJoniqua Howard
Joniqua Howard
MTMAYA A TROTZ
MAYA A TROTZ
KTKen Thomas
Ken Thomas
EOErlande Omisca
Erlande Omisca
HCHong Ting Chiu
Hong Ting Chiu
ASAmy L. Stuart
Amy L. Stuart

1 December 2003 in Journal of Colloid and Interface Science
Verified
Journal Article
Closed access
MVMario Villalobos
Mario Villalobos
MTMAYA A TROTZ
MAYA A TROTZ
JLJames O Leckie
James O Leckie

1 May 2017 in Environmental Engineering Science
Verified
Journal Article
Closed access
SBSuzanne E. Boxman
Suzanne E. Boxman
QZQiong Zhang
Qiong Zhang
DBDonald Bailey
Donald Bailey
MTMAYA A TROTZ
MAYA A TROTZ
Life cycle assessment was used to evaluate environmental impacts of simultaneous fish and plant production through the aquaculture practice of aquaponics. In aquaponics, hydroponic plant production replaces the conventional water treatment processes of microbial nitrification and water exchanges required in recirculating aquaculture systems (RAS) to maintain water quality. The system expansion method was used to assess potential avoided burdens from coproduction of recovered solids, plant production, and water treatment. Results indicated that electricity and feed were the main contributing factors to environmental impact. Impact assessment results were highly sensitive to changes in electricity inputs, suggesting that a small reduction in electricity could contribute to a correspondingly large change in the environmental impact. Avoided burdens associated with coproducts contributed to a moderate reduction in environmental impact compared to reducing total electricity inputs or sourcing electricity from renewable sources. Of the coproducts considered, avoided water treatment contributed greatest to reductions in environmental impact due to reductions in energy use, water use, and eutrophication potential. The large reduction in water use suggests that plant production can contribute to increased recirculation rates and further reduce water inputs associated with aquaculture. Aquaponics, similar to other RASs, essentially eliminates local ecological impacts at the cost of high energy use and the addition of industrial fish feeds. Development of sustainable land-based aquaculture will encompass many production systems, including aquaponics; however, all systems will benefit from improved energy efficiency, increased accessibility to renewable energy sources, and development of sustainable fish feeds.