Sasha Eisenman

Dr. Sasha Eisenman


Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

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

Representative Publications

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21 July 2011 in Fitoterapia
Verified
Journal Article
Closed access
SESasha Eisenman
Sasha Eisenman
APAlexander Poulev
Alexander Poulev
LSLena Struwe
Lena Struwe
IRIlya Raskin
Ilya Raskin
DRDavid M. Ribnicky
David M. Ribnicky


20 July 2012
Verified
Book Chapter
Closed access
PDF file
DZDavid E. Zaurov
David E. Zaurov
IBIgor V. Belolipov
Igor V. Belolipov
AKAnvar G. Kurmukov
Anvar G. Kurmukov
ISIshenbay S. Sodombekov
Ishenbay S. Sodombekov
AAAnarbek A. Akimaliev
Anarbek A. Akimaliev
SESasha Eisenman
Sasha Eisenman

19 February 2020 in Water
Verified
Journal Article
Open access
PDF file
MTMin-cheng Tu
Min-cheng Tu
JCJosh Caplan
Josh Caplan
SESasha Eisenman
Sasha Eisenman
BWBridget Wadzuk
Bridget Wadzuk
Green infrastructure (GI) systems are often overdesigned. This may be a byproduct of static sizing (e.g., accounting for a design storm’s runoff volume but not exfiltration rates) or may be deliberate (e.g., buffering against performance loss through time). In tree trenches and other GI systems that require stormwater to accumulate in an infiltration bed before it contacts the planting medium, overdesign could reduce plant water availability significantly. This study investigated the hydrological dynamics and water relations of an overdesigned tree trench system and identified factors contributing to, compounding, and mitigating the risk of plant stress. Water in the infiltration bed reached soil pits only once in three years, with that event occurring during a hydrant release. Moreover, minimal water was retained in soil pits during the event due to the hydraulic properties of the soil media. Through a growing season, one of the two tree types frequently experienced water stress, while the other did so only rarely. These contrasting responses can likely be attributed to roots being largely confined to the soil pits vs. reaching a deeper water source, respectively. Results of this study demonstrate that, in systems where soil pits are embedded in infiltration beds, overdesign can raise the storm size required for water to reach the soil media, reducing plant water availability between storms, and ultimately inducing physiological stress.


20 July 2012
Verified
Book Chapter
Closed access
PDF file
IBIgor V. Belolipov
Igor V. Belolipov
DZDavid E. Zaurov
David E. Zaurov
SESasha Eisenman
Sasha Eisenman