| A | B | C | D | E | F | G | H | I | J | K | L | M | N | O | P | Q | R | S | T | U | V | W | X | Y | Z | AA | AB | AC | AD | AE | AF | AG | AH | AI | AJ | AK | AL | AM | AN | AO | AP | AQ | AR | AS | AT | AU | AV | AW | AX | AY | AZ | BA | BB | BC | BD | BE | BF | BG | BH | BI | ||
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1 | Initial Screening | Study Information | Hydrologic and Water Quality Performance | Additional Considerations | ||||||||||||||||||||||||||||||||||||||||||||||||||||||||||
2 | Authors | Year | Title | Journal | PDF Name | DOI/ Hyperlink | Omitted From Review? | Reason to Omit | Grey literature? | Lower priority topic? | If biodiversity, which organisms? | Secondary focus | Study Type | If model, describe focus | Pond Type | City | State/Province | Country | Climate | Start Year | Study Duration (years) | Number of Ponds | Impacts of pond design or env. factors on performance | Pond maintenance and operations | Hydrologic or water quality control innovations | Pond assessment innovation | Pond Hydrologic Assessment Method | Hydro Sampling Frequency | Pond Water Quality Assessment Method | WQ Sampling Frequency | Sampling Notes | Rate Control | Volume Control | Flood Control | Energy dissipation/ erosion control | Stratification/Temperature | Within pond hydrodynamic processes (short-circuiting, wind/mixing, residence time) | Hydrologic Performance Assessments Provided? | Sedimentation/ Resuspension | TSS/VSS | Phosphorus | Nitrogen | Metals | Road Salts/ Chloride | PAHs/Hydrocarbons | Organic matter, BOD, DO? | Bacteria/ Pathogens | WQ performance assessments provided? | Climate Change Resilience | Vegetation (describe) | Oil/Grease/Trash Removal | Additional (Anti-) Benefits (describe) | Key Results/Takeaways | Management recommendations | Identified Areas of Needed Research | Paper Quality/Relevance | Other Notes or Novelty | |||||
3 | X | Abrishamchi, A.; Massoudieh, A.; Kayhanian, M. | 2010 | Probabilistic modeling of detention basins for highway stormwater runoff pollutant removal efficiency | URBAN WATER JOURNAL | Abrishamchi_2010_Probabilistic | 0 | Pond model | Effects of pond design configurations on metal removal | Detention/Retention Basin | Los Angeles | CA | USA | Metal removal effectiveness of 1 compartment vs 2 compartment ponds | No | X | No | Two compartment ponds more effectively remove Cu and Zn through enhanced treatment of first flush | Medium | |||||||||||||||||||||||||||||||||||||||||||
4 | X | Adams, James P.; Kirst, Robert; Kearns, Lance E.; Krekeler, Mark P. | 2009 | Mn-oxides and sequestration of heavy metals in a suburban catchment basin of the Chesapeake Bay watershed | ENVIRONMENTAL GEOLOGY | Adams_2009_Mn-oxides | 0 | Field | Detention/Retention Basin | Fairfax | VA | USA | 1 | 1 | Sediments | Once | No | X | No | Mn-oxides occurring on the surface of clasts can be mobilized, especially when interacting with deicing agents | Low | Lab investigation of the mobility of Mn-oxides on clasts within stormwater basins | ||||||||||||||||||||||||||||||||||||||||
5 | X | Adams, L. W.; Dove, L. E.; Leedy, D. L. | 1984 | Public attitudes toward urban wetlands for stormwater control and wildlife enhancement | Wildlife Society Bulletin | Adams_1984_Public | 0 | Public Perceptions/Aesthetics | ||||||||||||||||||||||||||||||||||||||||||||||||||||||
6 | X | Ahadi, M.; Bergstrom, D. J.; Mazurek, K. A. | 2020 | Computational Fluid-Dynamics Modeling of the Flow and Sediment Transport in Stormwater Retention Ponds: A Review | JOURNAL OF ENVIRONMENTAL ENGINEERING | Ahadi_2020_Computational | 0 | Review | A review on the application of computational fluid dynamics modeling to hydrologic and sediment transport in stormwater ponds | Detention/Retention Pond | Low | Good review, but almost outside scope | ||||||||||||||||||||||||||||||||||||||||||||||||||
7 | X | Ahilan, Sangaralingam; Guan, Mingfu; Wright, Nigel; Sleigh, Andrew; Allen, Deonie; Arthur, Scott; Haynes, Heather; Krivtsov, Vladimir | 2019 | Modelling the long-term suspended sedimentological effects on stormwater pond performance in an urban catchment | JOURNAL OF HYDROLOGY | Ahilan_2019_Modelling | 0 | Pond model | Effects of TSS removal on long-term pond performance | Detention/Retention Pond | Newcastle | England | X | X | X | Yes | X | X | Yes | Accumulated sediments affect pond hydrologic performance and can be a large source of downstream sediment during large storm events. Dredging every 8-10 years recommended | Medium | |||||||||||||||||||||||||||||||||||||||||
8 | X | Ahmadisharaf, E.; Alamdari, N.; Tajrishy, M.; Ghanbari, S. | 2021 | Effectiveness of Retention Ponds for Sustainable Urban Flood Mitigation across Range of Storm Depths in Northern Tehran, Iran | JOURNAL OF SUSTAINABLE WATER IN THE BUILT ENVIRONMENT | Ahmadisharaf_2021_Effectiveness | 0 | Watershed model | Flood mitigation and TSS removal of hypothetical ponds | Detention/Retention Pond | Tehran | Iran | X | Yes | X | Yes | 1 large pond is more efficient than a series of ponds for both flood mitigation and TSS removal | Low | Also considers cost | |||||||||||||||||||||||||||||||||||||||||||
9 | X | Akram Hossain, M.; Alam, Mahbub; Yonge, David R.; Dutta, Prashanta | 2005 | Efficiency and Flow Regime of a Highway Stormwater Detention Pond in Washington, USA | Water, Air, & Soil Pollution | Hossain_2005_Efficiency | 0 | Field study and model | Model to describe flow regime within pond | Stormwater/Wet Pond | Spokane | Washington | USA | Mediterranean | 1997 | 2 | 1 | Storm intensity, duration and interval between storms in addition to traffic volume, highway maintenance practices, land use and conditions affect flow and pollutant concentrations | Direct inflow/outflow monitoring | Continuous | Autosampler | Continuous | Used American Sigma flow meters and portable samplers, I'm fairly certain sampling was continuous but they only present events | X | X | TSS and metal removal efficiency variable, flow and pollutant concentration dependent on multitude factors | Medium | |||||||||||||||||||||||||||||||||||
10 | X | Al-Rubaei, Ahmed Mohammed; Merriman, Laura S.; Hunt, William F.; Viklander, Maria; Marsalek, Jiri; Blecken, Godecke-Tobias | 2017 | Survey of the Operational Status of 25 Swedish Municipal Stormwater Management Ponds | JOURNAL OF ENVIRONMENTAL ENGINEERING | Al-Rubaei_2017_Survey | 0 | Field | Stormwater/Wet Pond | Sweden | 2013 | 25 | Impact of pond shape and layout on system hydraulics | Identifies need for increases inspection and maintenance | Sedimentation in pond forebays | Use of aerial photos, basin layouts and geometries to estimate hydraulic efficiency | Aerial | Once | Sediments | Estimated hydraulic efficiency | No | X | No | Assessed littoral vegetation and clogging potential | High | Great pond survey and review of design and maintenance factors that influence pond performance | ||||||||||||||||||||||||||||||||||||
11 | X | Allafchi, Farzam; He, Jianxun; Neumann, Norman F.; Valeo, Caterina | 2019 | An Integrated Hydrological-CFD Model for Estimating Bacterial Levels in Stormwater Ponds | WATER | Allafchi_2019_Integrated | 0 | Pond model | Spatial distribution of bacteria in ponds relevant to extracting water for reuse | Stormwater/Wet Pond | Calgary | Albert | Canada | Arid | No | X | No | Wind plays a crucial role in flow dynamics and thus bacteria distribution | Low | Assesses hydrologic impacts of wind. Huge pond (235,000 m3) | ||||||||||||||||||||||||||||||||||||||||||
12 | X | Allafchi, Farzam; Valeo, Caterina; He, Jianxun; N, Neumann | 2021 | A mechanistic model for estimating bacteria levels in stormwater ponds | JOURNAL OF HYDRO-ENVIRONMENT RESEARCH | Allafchi_2021_mechanistic | 0 | Pond model | Estimation of pond bacteria levels for stormwater reuse | Stormwater/Wet Pond | Calgary | Albert | Canada | Arid | No | X | No | Application of this model to different pond types and watershed characteristics. Also, role of thermal stratification on pond hydrodynamics | Low | Mainly focused on locations for water withdraw from ponds | ||||||||||||||||||||||||||||||||||||||||||
13 | X | Allinson, G.; Zhang, Pei; AnhDuyen, Bui; Allinson, M.; Rose, G.; Marshall, S.; Pettigrove, V. | 2015 | Pesticide and trace metal occurrence and aquatic benchmark exceedances in surface waters and sediments of urban wetlands and retention ponds in Melbourne, Australia | ENVIRONMENTAL SCIENCE AND POLLUTION RESEARCH | Allinson_2015_Pesticide | 0 | Field | Detention/Retention Pond | Melbourne | Australia | 2010 | 24 | Multiple | Sediment and water samples | No | X | No | High Zn concentrations. | Low | Major focus on pesticides | |||||||||||||||||||||||||||||||||||||||||
14 | X | Anderson, B. C.; Bell, T.; Hodson, P.; Marsalek, J.; Watt, W. E. | 2004 | Accumulation of trace metals in freshwater invertebrates in stormwater management facilities | WATER QUALITY RESEARCH JOURNAL OF CANADA | Anderson_2004_Accumulation | 0 | Impacts on biodiversity | Invertebrates | Canada | ||||||||||||||||||||||||||||||||||||||||||||||||||||
15 | X | Andradottir, H. O. | 2017 | Impact of Wind on Stormwater Pond Particulate Removal | JOURNAL OF ENVIRONMENTAL ENGINEERING | Andradottir_2017_Impact | 0 | Pond model | Mechanistic impacts of wind on particulate removal in ponds | Stormwater/Wet Pond | Iceland | X | X | X | Wind stirring most severely affects the removal of small clay particles, which have higher pollutant concentrations and toxicities. Wind circulation can reduce effective volumes. | High | Hydrodynamic model on the effects of wind | |||||||||||||||||||||||||||||||||||||||||||||
16 | X | Andradottir, Hrund; Mortamet, Marie | 2016 | Impact of Wind on Storm-Water Pond Hydraulics | JOURNAL OF HYDRAULIC ENGINEERING | Andradottir_2016_Impact | 0 | Field | Stormwater/Wet Pond | Iceland | 2008 | 1 | 1 | Other | Intervalled | Measured pond velocities and wind-driven currents at different pond locations using an Acoustic Doppler Velocimeter | X | Wind was an important hydraulic driver in the pond, despite conditions that curtail wind effects (short vetch, deep water, low surface area relative to adjacent land. Wind may produce short-circuiting. | Surrounding vegetation and deep pond depth did not prevent mixing and short circuiting | High | Affect of wind on pond currents and mixing | |||||||||||||||||||||||||||||||||||||||||
17 | ILL | Anonymous, | 1995 | Pollution Dynamics Within Stormwater Wetlands: Organic Matter | Watershed Protection Techniques | Anonymous_1995_Pollution | 0 | |||||||||||||||||||||||||||||||||||||||||||||||||||||||
18 | X | Antonin, C.; Jonathan, J.; Nathan, D.; Manfred, E.; Jean-Yves, G.; Yves, H. | 2021 | Can road stormwater ponds be successfully exploited by the European green frog (Pelophylax sp.)? | URBAN ECOSYSTEMS | Conan_2021_Road | 0 | Impacts on biodiversity | Amphibians | |||||||||||||||||||||||||||||||||||||||||||||||||||||
19 | X | Antonowicz, Jozef Piotr; Kubiak, Jacek; Machula, Sylwia | 2016 | Macroelements in the surface microlayer of water of urban ponds | Limnological Review | Antonowicz_2016_Macroelements | 0 | Field | Stormwater/Wet Pond | Slupsk | Poland | 2007 | 1 | 2 | Grab samples | Intervalled | Surface layer and subsurface layer of water column | No | X | No | Heavy metal concentrations in the surface microlayer were not much different than the subsurface layer for the metals (Na, K, Ca, Mg) | Medium | Metal concentrations in surface microlayer compared to subsurface bulk water column | |||||||||||||||||||||||||||||||||||||||
20 | X | Aulenbach, B. T.; Landers, M. N.; Musser, J. W.; Painter, J. A. | 2017 | EFFECTS OF IMPERVIOUS AREA AND BMP IMPLEMENTATION AND DESIGN ON STORM RUNOFF AND WATER QUALITY IN EIGHT SMALL WATERSHEDS | JOURNAL OF THE AMERICAN WATER RESOURCES ASSOCIATION | Aulenbach_2017_EFFECTS | 0 | Field | Detention/Retention Pond | Gwinnett | Georgia | USA | Subtropial | 2001 | 7 | Receiving waterbody monitoring | Continuous | Autosampler | Event-based | Stream hydrologic and water quality sampling in 8 watersheds | X | X | Yes | X | X | X | X | Yes | Increased effective impervious area treated by ponds reduced peak flow rates and volumes, but didn't always reduce pollutant concentrations or loads. | Medium | Investigated effects of imperviousness and pond implementation using hydrologic and water quality samples from 8 watershed streams. | |||||||||||||||||||||||||||||||
21 | X | Ayalew, T. B.; Krajewski, W. F.; Mantilla, R. | 2015 | Insights into Expected Changes in Regulated Flood Frequencies due to the Spatial Configuration of Flood Retention Ponds | JOURNAL OF HYDROLOGIC ENGINEERING | Ayalew_2015_Insights | 0 | Watershed model | Impact of pond spatial configurations on flood control | Detention/Retention Pond | Pond placement within watershed. Ponds placed in a series, in parallel, and far from downstream outlets | X | No | No | Pond placement and configuration matters. 3 key bulletpoints at the bottom of article | Medium | Made a synthetic watershed model (with high resolution flow for small watersheds) to determine the effects placement location on watershed hydrology and the impact of ponds placed in series vs in parallel | |||||||||||||||||||||||||||||||||||||||||||||
22 | X | Azah, E.; Kim, H.; Townsend, T. | 2017 | Assessment of direct exposure and leaching risk from PAHs in roadway and stormwater system residuals | SCIENCE OF THE TOTAL ENVIRONMENT | Azah_2017_Assessment | 0 | Field | Stormwater/Wet Pond | Florida | USA | 10 | Sediments | Once | X | Ponds have lower concentrations of PAHs than other sediments | bioaccessibility of PAHs | Low | ||||||||||||||||||||||||||||||||||||||||||||
23 | X | Backer, Sylvia; Onsem, Stijn; Triest, Ludwig | 2010 | Influence of submerged vegetation and fish abundance on water clarity in peri-urban eutrophic ponds | HYDROBIOLOGIA | Backer_2010_Influence | 0 | Field | Peri-urban pond | Brussels | Belgium | 2005 | 1 | 13 | Fish removal | Multiple | Intervalled | Grab samples, turbidity, conductivity, pH, and vegetation | No | X | X | No | Estimated abundance of submerged macrophytes | Eutrophic ponds have good potential for restoration through fish removal. Lower fish density correlated with clearer water and higher plant abundance. | Fish removal | Low | Fish management in ponds probably outside scope of review | |||||||||||||||||||||||||||||||||||
24 | X | Backstrom, M.; Viklander, M. | 2000 | Integrated stormwater management in cold climates | JOURNAL OF ENVIRONMENTAL SCIENCE AND HEALTH PART A-TOXIC/HAZARDOUS SUBSTANCES & ENVIRONMENTAL ENGINEERING | Backstrom_2000_Integrated | 0 | Review | Detention/Retention Pond | Low | Addresses cold climate issues for stormwater management in ponds | |||||||||||||||||||||||||||||||||||||||||||||||||||
25 | X | Badiou, P.; Page, B.; Ross, L. | 2019 | A comparison of water quality and greenhouse gas emissions in constructed wetlands and conventional retention basins with and without submerged macrophyte management for storm water regulation | ECOLOGICAL ENGINEERING | Badiou_2019_Comparison | 0 | Detention/Retention Basin | Winnipeg | Canada | 2007 | 1 | 15 | Water quality impacts of removal of submersed aquatic vegetation | Grab samples | Intervalled | Weekly | No | X | X | Yes | Water quality impacts of macrophyte removal | Herbicides and plant removal in stormwater basins resulted in poorer water quality and higher methane emissions | Macrophyte removal may not be good practice as it could lead to HABs and GHG emissions via multiple mechanisms | High | Assessed differences in water quality and GHG emissions between conventional stormwater retention basins and urban constructed wetlands and impact of herbicides and plant removal | ||||||||||||||||||||||||||||||||||||
26 | X | Barbier, Lucie; Durickovic, Ivana; Julien, Laurent; Marie-Odile, Simonnot; Re�mi, Suaire | 2018 | Is a Road Stormwater Retention Pond Able to Intercept Deicing Salt? | Water, Air, and Soil Pollution | Barbier_2018_Road | 0 | Field | Detention/Retention Pond | France | 2016 | 1 | 1 | Water level | Continuous | Multiple | Event-based | Autosamplers for water quality during storms and sediment sampling before, during, and after salting period | No | X | No | Pond received 48% of applied salt and did not retain it. Therefore this pond was not able to mitigate the ecotoxicological risks of NaCl and NaCl possibly led to increased metal mobilization | High | Salt retention in ponds | ||||||||||||||||||||||||||||||||||||||
27 | X | Barlow, W. T.; Brandes, D. | 2015 | Stage-Discharge Models for Concrete Orifices: Impact on Estimating Detention Basin Drawdown Time | JOURNAL OF IRRIGATION AND DRAINAGE ENGINEERING | Barlow_2015_Stage-Discharge | 0 | Lab study and model | Whether simple weir and orifice models fit experimental data for low head concrete orifices in ponds, and how different models affect drawdown time results | Stormwater/Wet Pond | X | No | No | How you model outflow from ponds under low head conditions has important impacts on watershed level drawdown times and flow rates and our current modeling approaches are often inaccurate | Medium | This is a high quality and important paper for pond design and modeling, but it's not overly relevant to the review | ||||||||||||||||||||||||||||||||||||||||||||||
28 | X | Barrett, M. E. | 2008 | Comparison of BMP performance using the International BMP Database | JOURNAL OF IRRIGATION AND DRAINAGE ENGINEERING | Barrett_2008_Comparison | 0 | Meta analysis | Multiple | Permanent pool volume, pond geometry, influent concentration, climatic variability | No | X | X | X | X | Yes | Low | Use BMP database to look at nutrient removal of different BMP types. Not enough data to in the database to draw strong conclusions so they recommend additional research | ||||||||||||||||||||||||||||||||||||||||||||
29 | X | Bartlett, A. J.; Rochfort, Q.; Brown, L. R.; Marsalek, J. | 2012 | Causes of toxicity to Hyalella azteca in a stormwater management facility receiving highway runoff and snowmelt. Part II: Salts, nutrients, and water quality | SCIENCE OF THE TOTAL ENVIRONMENT | Bartlett_2012_Causes | 0 | Impacts on biodiversity | Invertebrates | |||||||||||||||||||||||||||||||||||||||||||||||||||||
30 | X | Bartone, D. M.; Uchrin, C. G. | 1999 | Comparison of pollutant removal efficiency for two residential storm water basins | JOURNAL OF ENVIRONMENTAL ENGINEERING | Bartone_1999_Comparison | 0 | Field | Detention/Retention Basin | Randolph Township | New Jersey | USA | 1998 | 1 | 2 | Water level | Event-based | Grab samples | Event-based | No | X | X | X | Yes | Detention basins with low-flow concrete channels and vegetated channels are both ineffective for improving water quality | Low | Grab samples during 4 storms, unsatisfying methodology | |||||||||||||||||||||||||||||||||||
31 | X | Bavor, H. J.; Davies, C. M.; Sakadevan, K. | 2001 | Stormwater treatment: do constructed wetlands yield improved pollutant management performance over a detention pond system? | WATER SCIENCE AND TECHNOLOGY | Bavor_2001_Stormwater | 0 | Field | Detention/Retention Pond | Sydney | Australia | <2000 | 1 | Multiple | Intervalled | Grab samples and sediments | No | X | X | X | X | Yes | Suggests that wetlands are more effective than ponds at settling out fine particles and associated pollutants | Low | Unsatisfying experimental design and write-up | |||||||||||||||||||||||||||||||||||||
32 | X | Beckingham, B.; Callahan, T.; Vulava, V. | 2019 | Stormwater Ponds in the Southeastern U.S. Coastal Plain: Hydrogeology, Contaminant Fate, and the Need for a Social-Ecological Framework | FRONTIERS IN ENVIRONMENTAL SCIENCE | Beckingham_2019_Stormwater | 0 | Review | Stormwater/Wet Pond | Southeast coastal plain | USA | See Discussion | See Critical Research Needs Section | High | ||||||||||||||||||||||||||||||||||||||||||||||||
33 | X | Becouze-Lareure, Celine; Gonzalez-Merchan, Carolina; Sebastian, Christel; Bazin, Christine; Kouyi, Gislain Lipeme; Barraud, Sylvie; Perrodin, Yves | 2018 | Spatial and temporal dynamics of sediment ecotoxicity in urban stormwater retention basins: Methodological approach and application to a pilot site close to Lyon in France | Journal of environmental science and health | Becouze-Lareure_2018_Spatial | 0 | Field | Detention/Retention Pond | Lyon | France | 2015 | 3 | 1 | Sediments | Intervalled | No | X | X | X | X | No | Ecotoxicity of sediments is fairly low. Metal concentrations of sediments somewhat high | Low | Overly focused on the methodology and approach | |||||||||||||||||||||||||||||||||||||
34 | X | Behera, P. K.; Papa, F.; Adams, B. J. | 1999 | Optimization of regional storm-water management systems | JOURNAL OF WATER RESOURCES PLANNING AND MANAGEMENT-ASCE | Behera_1999_Optimization | 0 | Economic factors | A method for determining cost optimal pond designs | |||||||||||||||||||||||||||||||||||||||||||||||||||||
35 | X | Belden, B. S.; Fossum, B. | 2018 | Iron Enhanced Sand Filter Performance for Reducing Phosphorus from a Regional Stormwater Pond | WORLD ENVIRONMENTAL AND WATER RESOURCES CONGRESS 2018: WATER, WASTEWATER, AND STORMWATER; URBAN WATERSHED MANAGEMENT; MUNICIPAL WATER INFRASTRUCTURE; AND DESALINATION AND WATER REUSE | Belden_2018_Iron | 0 | Field | Detention/Retention Pond | Roseville | Minnesota | USA | 2013 | 4 | 1 | two IESFs | Grab samples | Event-based | No | X | Yes | IESFs were effective at reducing P throughout the duration of the study | How long are IESFs functional for? | High | William Street Pond | |||||||||||||||||||||||||||||||||||||
36 | X | Belizario, P.; Scalize, P.; Albuquerque, A. | 2016 | Heavy Metal Removal in a Detention Basin for Road Runoff | OPEN ENGINEERING | Belizario_2016_Heavy | 0 | Field | Detention/Retention Basin | Covilha | Portugal | <2016 | 1 | 1 | Water level | Event-based | Grab samples | Event-based | No | X | No | Low | Unsatisfying sampling methodology. Grab samples and pond levels only. | |||||||||||||||||||||||||||||||||||||||
37 | X | Belles, A.; Alary, C.; Criquet, J.; Ivanovsky, A.; Billon, G. | 2017 | Assessing the transport of PAH in the surficial sediment layer by passive sampler approach | SCIENCE OF THE TOTAL ENVIRONMENT | Belles_2017_Assessing | 0 | Field | Stormwater/Wet Pond | France | <2017 | 1 | 1 | Multiple | Intervalled | Sediment samples and passive samples of sediment pore water | No | X | No | Proposed method for passive sampling of PAH exchange between the pond sediment-water interface. | Low | PAHs, but mostly focused on the sampling technique | ||||||||||||||||||||||||||||||||||||||||
38 | X | Benton, Steven E. | 2002 | Water level fluctuation in an urban pond: Climatic or anthropogenic impact? | JOURNAL OF THE AMERICAN WATER RESOURCES ASSOCIATION | Benton_2002_Water | 0 | Field | Stormwater/Wet Pond | Iowa | USA | 1996 | 1 | 1 | Water level | Sporadic | X | Pond level was low, and conclusions were that they couldn't tell if a storm sewer installation nearby or climate caused low pond levels. | Low | |||||||||||||||||||||||||||||||||||||||||||
39 | X | Bentzen, T. R. | 2010 | 3D modelling of transport, deposition and resuspension of highway deposited sediments in wet detention ponds | WATER SCIENCE AND TECHNOLOGY | Bentzen_2010_modelling | 0 | Lab study and model | Deposition and resuspension of highway sediments | Detention/Retention Pond | No | No | Low | Overly focused on demonstrating that the model works and can be used to model hydrodynamics in ponds | ||||||||||||||||||||||||||||||||||||||||||||||||
40 | X | Bentzen, T. R.; Larsen, T.; Rasmussen, M. R. | 2007 | Can we close the long-term mass balance equation for pollutants in highway ponds? | HIGHWAY AND URBAN ENVIRONMENT | Bentzen_2007_we | 0 | Field study and model | Detention/Retention Pond | Denmark | <2007 | 1 | 8 | No | X | X | Yes | Mass balance approach for long-term removal can be coupled to the short term mass balances of individual events. Resuspension is likely of minor importance, and the relationship between pond area and drainage area is a critical factor for accumulating rates | Low | |||||||||||||||||||||||||||||||||||||||||||
41 | X | Bentzen, T. R.; Larsen, T.; Rasmussen, M. R. | 2008 | Wind effects on retention time in highway ponds | WATER SCIENCE AND TECHNOLOGY | Bentzen_2008_Wind | 0 | Pond model | Effects of wind on retention time and flow patterns | Detention/Retention Pond | Denmark | <2008 | X | Yes | No | When modeling retention times or flow patterns in shallow detention ponds, wind shear stress should be accounted for. | Medium | Effects of wind on retention time and flow | ||||||||||||||||||||||||||||||||||||||||||||
42 | X | Bentzen, T. R.; Larsen, T.; Rasmussen, M. R. | 2009 | Predictions of Resuspension of Highway Detention Pond Deposits in Interrain Event Periods due to Wind-Induced Currents and Waves | JOURNAL OF ENVIRONMENTAL ENGINEERING | Bentzen_2009_Predictions | 0 | Pond model | Impact of wind-induced currents on resuspension of pond sediments | Detention/Retention Pond | X | No | X | No | Outflow TSS concentrations are well correlated with wind speed. Increasing water depths and establishment of shelterbelts are recommended. | Medium | Recommends shelterbelts to reduced windspeed. | |||||||||||||||||||||||||||||||||||||||||||||
43 | X | Bentzen, Thomas Ruby; Larsen, Torben | 2009 | Heavy metal and PAH concentrations in highway runoff deposits fractionated on settling velocities | JOURNAL OF ENVIRONMENTAL ENGINEERING | Bentzen_2009_Heavy | 0 | Field | Detention/Retention Pond | Denmark | <2009 | 1 | 4 | X | X | X | Found a direct relationships between settling velocities of runoff particles and corresponding heavy metal and PAH concentrations. Divergences are due to organic matter. | Medium | Investigates settling velocities of different sized pond sediments and associated heavy metal and PAH concentrations | |||||||||||||||||||||||||||||||||||||||||||
44 | X | Bernardin-Souibgui, Claire; Barraud, Sylvie; Bourgeois, Emilie; Aubin, Jean-Baptiste; Becouze-Lareure, Celine; Wiest, Laure; Marjolet, Laurence; Colinon, Celine; Kouyi, Ghislain Lipeme; Cournoyer, Benoit; Blaha, Didier | 2018 | Incidence of hydrological, chemical, and physical constraints on bacterial pathogens, Nocardia cells, and fecal indicator bacteria trapped in an urban stormwater detention basin in Chassieu, France | Environmental Science and Pollution Research International | Bernardin-Souibgui_2018_Incidence | 0 | Field | Detention/Retention Basin | Chassieu | France | 2013 | 3 | 1 | Direct inflow/outflow monitoring | Continuous | Multiple | Event-based | Flow-weighted water samples and sediments | No | X | X | X | X | Yes | Ponds were very polluted with bacteria and PAHs | High | Pretty good field study looking at PAHs | ||||||||||||||||||||||||||||||||||
45 | X | Bettez, N. D.; Groffman, P. M. | 2012 | Denitrification Potential in Stormwater Control Structures and Natural Riparian Zones in an Urban Landscape | ENVIRONMENTAL SCIENCE & TECHNOLOGY | Bettez_2012_Denitrification | 0 | Field | Multiple | Baltimore | Maryland | USA | 2011 | 1 | 1 | Multiple | Took water and sediment samples to analyze for denitrification activity | No | X | No | Stormwater control measures (ponds and basins) have higher denitrification enzyme activity than natural areas despite having similar microbial biomass. | Future work that accounts for retention time of water and N in detention basins is needed | High | SCMs are denitrification hotspots | ||||||||||||||||||||||||||||||||||||||
46 | X | Beutel, Marc W.; Larson, Laurie | 2015 | Pathogen removal from urban pond outflow using rock biofilters | ECOLOGICAL ENGINEERING | Beutel_2015_Pathogen | 0 | Field | Other | Puget Sound | Washington | USA | <2013 | 1 | 1 | Rock biofilters to remove fecal coliform | No | X | No | Biofilters showed consistent ability to reduce fecal coliform concentrations, particularly during the day. However, scalability is an issue and a lot of space would be required to filter pond water using rock filters. | High | Field investigation of fecal coliform removal using rock filters. | ||||||||||||||||||||||||||||||||||||||||
47 | X | Bilodeau, K.; Pelletier, G.; Duchesne, S. | 2018 | Real-time control of stormwater detention basins as an adaptation measure in mid-size cities | URBAN WATER JOURNAL | Bilodeau_2018_Real-time | 0 | Watershed model | Detention/Retention Basin | Granby | Quebec | Canada | 1 | real time control | X | X | X | X | real time control strategies; Modelled real time control for a small pond to reduce peak flows; was effective | Low | ||||||||||||||||||||||||||||||||||||||||||
48 | X | Birch, G. F.; Matthai, C.; Fazeli, | 2006 | Efficiency of a Retention/Detention Basin to Remove Contaminants from Urban Stormwater | URBAN WATER JOURNAL | Birch_2006_Efficiency | 0 | Field | Detention/Retention Basin | Sydney | Australia | 2000 | 1 | 1 | Direct inflow/outflow monitoring | Continuous | Autosampler | Event-based | No | X | X | X | X | X | Yes | Mostly focused on metals; basin was effective at reducing TSS, trace metals and nutrients but sometimes exported Cr, Ni, and Fe; overall removal or export was not easily predictable | Medium | removal efficiencies calculated but in Australia | ||||||||||||||||||||||||||||||||||
49 | X | Birkinshaw, Stephen J.; Kilsby, Chris; Greg, O’Donnell; Quinn, Paul; Adams, Russell; Wilkinson, Mark E. | 2021 | Stormwater Detention Ponds in Urban Catchments—Analysis and Validation of Performance of Ponds in the Ouseburn Catchment, Newcastle upon Tyne, UK | WATER | Birkinshaw_2021_Stormwater | 0 | Field study and model | Effect of development and pond implementation on stream flow rates and volumes | Detention/Retention Pond | Newcastle | England | Receiving waterbody monitoring | Continuous | X | X | Yes | No | Large-scale and long-term demonstration that development increases peak flows and stream flashiness, but that ponds can mitigate those effects when incorporated into development schemes | Medium | High quality demonstration paper | |||||||||||||||||||||||||||||||||||||||||
50 | X | Birx-raybuck, Devynn A.; Price, Steven J.; Dorcas, Michael E. | 2010 | Pond age and riparian zone proximity influence anuran occupancy of urban retention ponds | URBAN ECOSYSTEMS | Birx-raybuck_2010_Pond | 0 | Impacts on biodiversity | Amphibians | |||||||||||||||||||||||||||||||||||||||||||||||||||||
51 | X | Bishop, C. A.; Struger, J.; Barton,; Shirose, L. J.; Dunn, L.; Lang, A. L.; Shepherd, D. | 2000 | Contamination and Wildlife Communities in Stormwater Detention Ponds in Guelph and the Greater Toronto Area, Ontario, 1997 and 1998. Part I - Wildlife Communities | WATER QUALITY RESEARCH JOURNAL OF CANADA | Bishop_2000_Contamination | 0 | Field | Detention/Retention Pond | Toronto | Ontario | Canada | 1997 | 2 | 15 | Multiple | Intervalled | Grab samples and pond sediments sampled every 2 weeks | No | X | X | X | X | No | Bird eggs and minnows also analyzed for contaminants | Contamination is generally predictable by pond age and organic content or sediments. However, concentrations vary substantially among ponds, so regular monitoring is needed for accurate evaluations of pond toxicity | Medium | Good survey study of pond water and sediments, but doesn't advance our knowledge very much | ||||||||||||||||||||||||||||||||||
52 | X | Bjorklund Blom, Lena; Morrison, Gregory M.; Kingston, Jenny; Mills, Graham A.; Greenwood, Richard; Pettersson, Thomas J. R.; Rauch, Sebastien | 2002 | Performance of an in situ passive sampling system for metals in stormwater | Journal of environmental monitoring : JEM | Björklund_2002_Performance | 0 | Field | Detention/Retention Pond | Passive pond sampling system for metals using resin membranes | No | No | Promising alternative for monitoring inflowing and outflowing metal concentrations in ponds | Low | Novel sampling technique, but not necessarily appropriate for EMC and load calculations | |||||||||||||||||||||||||||||||||||||||||||||||
53 | X | Blackwell, B. F.; Schafer, L. M.; Helon, D. A.; Linnell, M. A. | 2008 | Bird use of stormwater-management ponds: Decreasing avian attractants on airports | LANDSCAPE AND URBAN PLANNING | Blackwell_2008_Bird | 0 | Impacts on biodiversity | Birds | Field study and model | to identify important factors in bird habitat (stormwater pond) choice near airports and to improve stormwater pond design near airports to reduce bird strikes | Stormwater/Wet Pond | Seattle | Washington | USA | vegetation surveys in 1m2 plot for 30 sites | Low | Interesting vegetation info that may be useful | ||||||||||||||||||||||||||||||||||||||||||||
54 | X | Blaszczak, Joanna R.; Badgley, Brian D.; Neill, Christopher; Pataki, Diane E.; Bernhardt, Emily S.; Rivers, Erin N.; Morse, Jennifer L.; Heffernan, Jim B.; Steele, Meredith K.; Groffman, Peter M.; Hobbie, Sarah E.; Hall, Sharon J. | 2018 | Sediment chemistry of urban stormwater ponds and controls on denitrification | ECOSPHERE | Blaszczak_2018_Sediment | 0 | Field | Stormwater/Wet Pond | 8 cities | 2014 | 64 | Impact of proportion of urban land cover in drainage area on pond contaminant concentrations | Multiple | Once | Grab samples and sediment samples taken once at the ponds | No | X | X | X | No | Metals likely will not increase N20 emissions by suppressing denitrification, and urban stormwater ponds are unlikely to be a major source of N2O no matter their denitrification potential | High | |||||||||||||||||||||||||||||||||||||||
55 | X | Blecken, Godecke-Tobias; Hunt, William F., III; Al-Rubaei, Ahmed Mohammed; Viklander, Maria; Lord, William G. | 2017 | Stormwater control measure (SCM) maintenance considerations to ensure designed functionality | URBAN WATER JOURNAL | Blecken_2017_Stormwater | 0 | Review | Reviews maintenance needs for multiple stormwater control measures and innovative designs | High | Good review on maintenance needs and design innovations | |||||||||||||||||||||||||||||||||||||||||||||||||||
56 | X | Blicharska, Malgorzata; Andersson, Johan; Bergsten, Johannes; Bjelke, Ulf; Hilding-Rydevik, Tuija; Thomsson, Michaela; Östh, John; Johansson, Frank | 2017 | Is there a relationship between socio-economic factors and biodiversity in urban ponds? A study in the city of Stockholm | URBAN ECOSYSTEMS | Blicharska_2017_Relationship | 0 | Impacts on biodiversity | Insects | |||||||||||||||||||||||||||||||||||||||||||||||||||||
57 | X | Blicharska, Malgorzata; Johansson, Frank; Andersson, Johan; Bergsten, Johannes; Hilding-Rydevik, Tuija; Bjelke, Ulf | 2016 | Effects of management intensity, function and vegetation on the biodiversity in urban ponds | URBAN FORESTRY & URBAN GREENING | Blicharska_2016_Effects | 0 | Impacts on biodiversity | Insects | |||||||||||||||||||||||||||||||||||||||||||||||||||||
58 | X | Bokony, Veronika; Ueveges, Balint; Ujhegyi, Nikolett; Verebelyi, Viktoria; Nemeshazi, Edina; Csikvari, Oliver; Hettyey, Attila | 2018 | Endocrine disruptors in breeding ponds and reproductive health of toads in agricultural, urban and natural landscapes | The Science of the Total Environment | Bokony_2018_Endocrine | 0 | Impacts on biodiversity | Amphibians | Field | Multiple | Hungary | 12 | 4 urban ponds; 4 natural ponds; 4 agricultural ponds | Multiple | Once | water and sediment samples | X | toad offspring fitness was reduced in toads from agricultural and urban ponds | Medium | 4 urban pond sites with PAH data | |||||||||||||||||||||||||||||||||||||||||
59 | X | Booth, Derek B.; Jackson, CRhett | 1997 | Urbanization of Aquatic Systems: Degradation Thresholds, Stormwater Detection, and the Limits of Mitigation | J Am Water Resour Assoc | Booth_1997_Urbanization | 0 | Watershed model | Discrepancies between conventional detention pond designs and actual pond performance when compared to design goals | Detention/Retention Pond | Washington | USA | Impact of pond design criteria on achieving peak flow vs peak duration standards | X | X | X | No | X | No | See paper conclusion for many broad conclusions regarding pond design goals and hydrologic mitigation, as well as the limits of mitigation | Medium | Great modeling/review paper on how pond performances depend on their design goals and the models used to design ponds for these goals. Not that relevant to this review though | ||||||||||||||||||||||||||||||||||||||||
60 | X | Borne, K. E.; Fassman-Beck, E. A.; Tanner, C. C. | 2014 | Floating Treatment Wetland influences on the fate of metals in road runoff retention ponds | WATER RESEARCH | Borne_2014_FloatingMetals | 0 | Floating treatment wetlands | ||||||||||||||||||||||||||||||||||||||||||||||||||||||
61 | X | Borne, K. E.; Fassman-Beck, E. A.; Winston, R. J.; Hunt, W. F.; Tanner, C. C. | 2015 | Implementation and Maintenance of Floating Treatment Wetlands for Urban Stormwater Management | JOURNAL OF ENVIRONMENTAL ENGINEERING | Borne_2015_Implementation | 0 | Floating Treatment wetlands | Field | Stormwater/Wet Pond | North Carolina | USA | <2015 | Maintenance of floating treatment wetlands | Floating treatment wetlands | Implementation and maintenance considerations | ||||||||||||||||||||||||||||||||||||||||||||||
62 | X | Borne, K. E.; Fassman, E. A.; Tanner, C. C. | 2013 | Floating treatment wetland retrofit to improve stormwater pond performance for suspended solids, copper and zinc | ECOLOGICAL ENGINEERING | Borne_2013_Floating | 0 | Floating treatment wetlands | ||||||||||||||||||||||||||||||||||||||||||||||||||||||
63 | Corrigendum, not added to drive | Borne, K. E.; Fassman, E. A.; Tanner, C. C. | 2014 | Floating treatment wetland retrofit to improve stormwater pond performance for suspended solids, copper and zinc (vol 54, pg 173, 2013) | ECOLOGICAL ENGINEERING | Borne_2014_Floatinga | 0 | Floating treatment wetlands | ||||||||||||||||||||||||||||||||||||||||||||||||||||||
64 | X | Borne, K. E.; Tanner, C. C.; Fassman-Beck, E. A. | 2013 | Stormwater nitrogen removal performance of a floating treatment wetland | WATER SCIENCE AND TECHNOLOGY | Borne_2013_Stormwater | 0 | Floating Treatment wetlands | Controlled field experiment | Stormwater/Wet Pond | North Carolina | USA | <2013 | Floating treatment wetlands | X | Nitrogen dynamics | ||||||||||||||||||||||||||||||||||||||||||||||
65 | X | Borne, K. E.; Theron, F.; Andres, Y. | 2021 | Turbidity reduction induced by floating treatment wetlands (FTW): a flume experiment to assess the impact of flow velocity | ECOLOGICAL ENGINEERING | Borne_2021_Turbidity | 0 | Floating treatment wetlands | ||||||||||||||||||||||||||||||||||||||||||||||||||||||
66 | X | Bounas, Anastasios; Keroglidou, Maria; Elisavet�Aspasia, Toli; Chousidis, Ieremias; Tsaparis, Dimitris; Leonardos, Ioannis; Sotiropoulos, Konstantinos | 2020 | Constrained by aliens, shifting landscape, or poor water quality? Factors affecting the persistence of amphibians in an urban pond network | Aquatic Conservation (Online) | Bounas_2020_Constrained | 0 | Impacts on biodiversity | Amphibians | Low | well written paper, but mainly focused on amphibians. Would likely have data that would be interesting to us on the ponds, but not available directly from the paper | |||||||||||||||||||||||||||||||||||||||||||||||||||
67 | X | Boving, T. B.; Neary, K. | 2007 | Attenuation of polycyclic aromatic hydrocarbons from urban stormwater runoff by wood filters | JOURNAL OF CONTAMINANT HYDROLOGY | Boving_2007_Attenuation | 0 | Controlled field experiment | Detention/Retention Pond | Providence | Rhode Island | USA | 2003 | 1 | 1 | Use of wood filters to capture PAHs | Multiple | Sporadic | water samples at the time of each test of the wood filters | No | X | Yes | Partitioning of PAH to wood is a function of molecular weight; it would take a lot of wood to remove the total PAH pollutant load | Possible use of wood filter to remove PAHs | Other methods of PAH removal | Medium | This is an interesting concept, but a lot of wood was required to remove a fraction of the total pollutant load | |||||||||||||||||||||||||||||||||||
68 | X | Bowes, B. D.; Tavakoli, A.; Wang, C.; Heydarian, A.; Behl, M.; Beling, P. A.; Goodall, J. L. | 2021 | Flood mitigation in coastal urban catchments using real-time stormwater infrastructure control and reinforcement learning | JOURNAL OF HYDROINFORMATICS | Bowes_2021_Flood | 0 | Watershed model | Flood mitigation through application of reinforced learning for real time control of ponds and drainage systems | Detention/Retention Pond | Real time control using reinforced learning applications | X | Yes | No | Reinforced learning real time control of ponds improved flood mitigation performance relative to the passive system. | Exploration of more complex reward functions based on different variables, beyond flood volume and pond water depth | Medium | |||||||||||||||||||||||||||||||||||||||||||||
69 | X | Brainard, A.S.; Fairchild, G.W. | 2012 | Sediment characteristics and accumulation rates in constructed ponds | Journal of soil and water conservation | Brainard_2012_Sediment | Field | Stormwater/Wet Pond | Pennsylvania | USA | 5 | Impacts of pond type, age, size, morphology, and drainage area on sedimentation rates | Sediments | Once | No | No | Main conclusion is that small ponds accumulate sediments faster than large ponds and that sediment has a high percentage of organic matter. | Low | Investigates watershed drivers of sediment accumulation, but 5 of the ponds have stream inputs. | |||||||||||||||||||||||||||||||||||||||||||
70 | X | Brand, A. B.; Snodgrass, J. W. | 2010 | Value of Artificial Habitats for Amphibian Reproduction in Altered Landscapes | CONSERVATION BIOLOGY | Brand_2010_Value | 0 | Impacts on biodiversity | Amphibians | No | No | |||||||||||||||||||||||||||||||||||||||||||||||||||
71 | X | Brand, Adrianne B.; Snodgrass, Joel W.; Gallagher, Matthew T.; Casey, Ryan E.; Meter, Robin | 2010 | Lethal and Sublethal Effects of Embryonic and Larval Exposure of Hyla versicolor to Stormwater Pond Sediments | ARCHIVES OF ENVIRONMENTAL CONTAMINATION AND TOXICOLOGY | Brand_2010_Lethal | 0 | Impacts on biodiversity | Amphibians | |||||||||||||||||||||||||||||||||||||||||||||||||||||
72 | X | Brandes, D.; Barlow, W. T. | 2012 | New Method for Modeling Thin-Walled Orifice Flow under Partially Submerged Conditions | JOURNAL OF IRRIGATION AND DRAINAGE ENGINEERING | Brandes_2012_New | 0 | Pond model | New method for modeling orifice flow under partially submerged conditions | Low | Overly focused on the modeling approach, but very relevant to modeling pond discharge | |||||||||||||||||||||||||||||||||||||||||||||||||||
73 | X | Brans, Kristien I.; Jessie, M. T. Engelen; Souffreau, Caroline; De Meester, Luc | 2018 | Urban hot-tubs: Local urbanization has profound effects on average and extreme temperatures in ponds | LANDSCAPE AND URBAN PLANNING | Brans_2018_Urban | 0 | Field | Detention/Retention Pond | Belgium | 2015 | 1 | 30 | Impact of local urbanization (roads, buildings, etc. within 50m of ponds) on pond water temperatures | X | No | No | Impacts of urbanization on pond water temperatures | Urban ponds get much hotter than natural ponds and also exhibit higher temperature fluctuations, but of which can have major impacts on aquatic life and biogeochemistry | Inclusion of vegetation, non-artificial substrates, increased depth, and vegetated pond borders to reduce heat | High | How UHI affects stormwater pond temperatures | ||||||||||||||||||||||||||||||||||||||||
74 | X | Brasil, J.; Macedo, M.; Lago, C.; Oliveira, T.; Junior, M.; Oliveira, T.; Mendiondo, E. | 2021 | Nature-Based Solutions and Real-Time Control: Challenges and Opportunities | WATER | Brasil_2021_Nature-Based | 0 | Review | Detention/Retention Basin | Real time control | X | X | Dynamic control of stormwater BMPs | Real time control of ponds can greatly improve the hydrologic and water quality performance of detention basins. The major difficulties are in the planning stage of the RTC system. These include whether to be centralized or not, the mathematical models involved in RTC, the forecasting system, and the cost of monitoring and transmitting data. | Medium | Review of challenges associated with RTC in retention basins | ||||||||||||||||||||||||||||||||||||||||||||||
75 | X | Briers, R. A. | 2014 | Invertebrate Communities and Environmental Conditions in a Series of Urban Drainage Ponds in Eastern Scotland: Implications for Biodiversity and Conservation Value of SUDS | CLEAN-SOIL AIR WATER | Briers_2014_Invertebrate | 0 | Impacts on biodiversity | Invertebrates | |||||||||||||||||||||||||||||||||||||||||||||||||||||
76 | X | Brink, I. C.; Kamish, W. | 2018 | Associations between stormwater retention pond parameters and pollutant (suspended solids and metals) removal efficiencies | WATER SA | Brink_2018_Associations | 0 | Meta analysis | Stormwater/Wet Pond | Relationship between pond volume, permanent depth, littoral zone area, and % imperviousness in drainage area on sediment and heavy metal removal efficiencies | No | X | X | Yes | Removal rates were differently influenced by pond parameters over different data ranges. Volume within the permanent pond was more important than the volume captured. See Conclusions section for others | See Conclusions section | See Conclusions section | Medium | Used international BMP database to extract relationships between pond physical parameters and removal performance efficiency | |||||||||||||||||||||||||||||||||||||||||||
77 | X | Burtchett, J. M.; Mallin, M. A.; Cahoon, L. B. | 2017 | Micro-zooplankton grazing as a means of fecal bacteria removal in stormwater BMPs | WATER SCIENCE AND TECHNOLOGY | Burtchett_2017_Micro-zooplankton | 0 | Field | Stormwater Treatment Wetland | Wilmington | North Carolina | USA | <2017 | 1 | 1 | Grab samples | Once | Grab samples and lab incubations | No | X | No | Micro zooplankton grazing can reduce fecal bacteria in detention ponds and can be increased with submersed and emergent vegetation. Grazing increases with pond water temperature | Medium | Used 24-hour grazing experiments and 3-day growth tests to determine degree to which micro-zooplankton graze on fecal bacteria | ||||||||||||||||||||||||||||||||||||||
78 | X | Campbell, K. R. | 1994 | Silver accumulation in three species of fish (family: Centrarchidae) in stormwater treatment ponds | Florida Scientist | Campbell_1994_Silver | 0 | Impacts on biodiversity | Fish | |||||||||||||||||||||||||||||||||||||||||||||||||||||
79 | X | Camponelli, K. M.; Casey, R. E.; Snodgrass, J. W.; Lev, S. M.; Landa, E. R. | 2009 | Impacts of weathered tire debris on the development of Rana sylvatica larvae | CHEMOSPHERE | Camponelli_2009_Impacts | 0 | Impacts on biodiversity | Amphibians | No | No | |||||||||||||||||||||||||||||||||||||||||||||||||||
80 | X | Camponelli, K. M.; Lev, S. M.; Snodgrass, J. W.; Landa, E. R.; Casey, R. E. | 2010 | Chemical fractionation of Cu and Zn in stormwater, roadway dust and stormwater pond sediments | ENVIRONMENTAL POLLUTION | Camponelli_2010_Chemical | 0 | Stormwater/Wet Pond | Baltimore | Maryland | USA | 2005 | 1 | 1 | Multiple | Event-based | Autosampler for stormflows and sediment cores | No | X | X | No | Coper and Zinc concentrations in runoff were sometimes exceeded EPA water quality criteria. However, Cu and Zn mostly remained in recalcitrant, chemically unavailable forms. | Cu and Zn concentrations within pond biota | Medium | Another study looking at metals in pond sediments. Good paper, but doesn't advance our understandings very much | |||||||||||||||||||||||||||||||||||||
81 | X | Carpenter, J. F.; Vallet, B.; Pelletier, G.; Lessard, P.; Vanrolleghem, P. A. | 2014 | Pollutant removal efficiency of a retrofitted stormwater detention pond | WATER QUALITY RESEARCH JOURNAL OF CANADA | Carpenter_2014_Pollutant | 0 | Field | Detention/Retention Pond | Quebec City | Quebec | Canada | <2014 | 1 | 1 | Increased retention time via sluice gate | Other | Multiple | Event-based | Composite and grab samples. Flow measurements were unreliable due to turbulence, so a calibrated SWMM model was used for inflows | No | X | X | X | Yes | Addition of sluice gate to increase retention times dramatically increased the removal of TSS, NH3-N, and zinc. | High | |||||||||||||||||||||||||||||||||||
82 | X | Casey, R. E.; Simon, J. A.; Atueyi, S.; Snodgrass, J. W.; Karouna-Renier, N.; Sparling, D. W. | 2007 | Temporal trends of trace metals in sediment and invertebrates from stormwater management ponds | WATER AIR AND SOIL POLLUTION | Casey_2007_Temporal | 0 | Maryland | USA | 1993 | 11 | 20 | Assessed commercial, highway, and residential pond drainage areas and compared to undeveloped pond drainage areas | Multiple | Sediment and macroinvertebrate samples | No | X | No | Stormwater ponds in the Maryland region at steady state with respect to metal concentrations in sediments and biota, except for Zn concentrations in highway pond sediments which are very high. Low risk to biota | Medium | Another sediment/metals paper | |||||||||||||||||||||||||||||||||||||||||
83 | X | Casey, Ryan; Lev, Steven; Snodgrass, Joel | 2013 | Stormwater ponds as a source of long-term surface and ground water salinisation | URBAN WATER JOURNAL | Casey_2013_Stormwater | 0 | Field | Stormwater/Wet Pond | Baltimore | Maryland | USA | 2005 | 2 | 2 | Multiple | Intervalled | Pond water samples and conductivity readings at different locations within the pond and surrounding groundwater. | No | X | No | Stormwater ponds can be large, year-round sources of Cl to downstream bodies and groundwater | SW ponds have some of the highest salt concentrations in the literature and deserve particular attention in evaluating road salt fate and transport | High | Road salts | |||||||||||||||||||||||||||||||||||||
84 | X | Chance, L. M. G.; Brunt, S. C. van; Majsztrik, J. C.; White, S. A. | 2019 | Short- and long-term dynamics of nutrient removal in floating treatment wetlands | Water Research (Oxford) | Chance_2019_Short | 0 | Floating treatment wetlands | ||||||||||||||||||||||||||||||||||||||||||||||||||||||
85 | X | Chang, C. L.; Lo, S. L.; Huang, S. M. | 2009 | Optimal strategies for best management practice placement in a synthetic watershed | ENVIRONMENTAL MONITORING AND ASSESSMENT | Chang_2009_Optimal | 0 | Optimal BMP placements | No | No | ||||||||||||||||||||||||||||||||||||||||||||||||||||
86 | X | Chang, N. B.; Islam, M. K.; Wanielista, M. P. | 2012 | Floating wetland mesocosm assessment of nutrient removal to reduce ecotoxicity in stormwater ponds | INTERNATIONAL JOURNAL OF ENVIRONMENTAL SCIENCE AND TECHNOLOGY | Chang_2012_Floating | 0 | Floating treatment wetlands | ||||||||||||||||||||||||||||||||||||||||||||||||||||||
87 | X | Chang, Ni-Bin; Islam, Kamrul; Marimon, Zachary; Wanielista, Martin P. | 2012 | Assessing biological and chemical signatures related to nutrient removal by floating islands in stormwater mesocosms | CHEMOSPHERE | Chang_2012_Assessing | 0 | Floating treatment wetlands | No | Yes | ||||||||||||||||||||||||||||||||||||||||||||||||||||
88 | X | Chang, Ni-Bin; Islam, Kamrul; Wanielista, Martin P.; Marimon, Zachary; Zhemin, Xuan | 2013 | Exploring hydrobiogeochemical processes of floating treatment wetlands in a subtropical stormwater wet detention pond | ECOLOGICAL ENGINEERING | Chang_2013_Exploring | 0 | Floating treatment wetlands | Field | Detention/Retention Pond | Orlando | Florida | USA | 2011 | 1 | deployed FTWs to determine nutrient removal efficiencies; FTWs took up N and kept N in the pond low | Low | Pond has a fountain in the center | ||||||||||||||||||||||||||||||||||||||||||||
89 | X | Chang, NiBin; Lin, KuenSong; Wanielista, M. P.; Crawford, A. J.; Hartshorn, N.; Clouet, B. | 2016 | An innovative solar energy-powered floating media bed reactor for nutrient removal (I): reactor design | JOURNAL OF CLEANER PRODUCTION | Chang_2016_Innovative | 0 | Field | Stormwater/Wet Pond | 2014 | 1 | 1 | N and P removal using a floating media bed and solar powered pump | Grab samples | Event-based | X | X | Floating media bed showed effective removal of N and P in pond. Unique in its ability to filter nutrients during non-storm events | High | Sampling and experimental design could have been much better, but it's still an interesting technology | ||||||||||||||||||||||||||||||||||||||||||
90 | X | Chen, ChingNuo; Tsai, ChihHeng; Tsai, ChangTai | 2007 | Reduction of discharge hydrograph and flood stage resulted from upstream detention ponds | HYDROLOGICAL PROCESSES | Chen_2007_Reduction | 0 | Watershed model | Case study of the flood mitigation potential of a series of detention ponds | Detention/Retention Pond | Taiwan | X | Yes | No | Detention ponds dramatically reduced the inundation area, volume, and depth during small storms, but the flood mitigation benefits were not obvious for large storms (50 year), even though overall volumes were much lower. | Mitigation effectiveness varies by location | Low | Flood mitigation, watershed model, case study | ||||||||||||||||||||||||||||||||||||||||||||
91 | X | Chen, Liyu; D'Aoust, Patrick M.; Rennie, Colin D.; Poulain, Alexandre; Pick, Frances | 2019 | Numerical investigation on the impact of wind-induced hydraulics on dissolved oxygen characteristics in a shallow stormwater pond | Water Quality Research Journal | Chen_2019_Numerical | 0 | Pond model | Influence of wind-driven circulation on spatial distributions of dissolved oxygen | Stormwater/Wet Pond | X | No | No | High wind speeds can produce complete mixing of pond water, leading to fully oxic conditions throughout pond water column | Sediment forebays should be preferentially placed in the downwind direction to benefit from the wind-induced flow and to avoid accumulation of hypoxia in water | High | Wind and DO concentrations | |||||||||||||||||||||||||||||||||||||||||||||
92 | X | Chen, LiYu; Delatolla, R.; D'Aoust, P. M.; Wang, Ru; Pick, F.; Poulain, A.; Rennie, C. D. | 2019 | Hypoxic conditions in stormwater retention ponds: potential for hydrogen sulfide emission | ENVIRONMENTAL TECHNOLOGY | Chen_2019_Hypoxic | 0 | Field | Stormwater/Wet Pond | Ottawa | Canada | 2014 | 1 | 2 | RSPII is irregularly shaped | H2S | Grab samples | Intervalled | took water samples at 2 depths: .2m and 1.5m | No | X | No | hypoxia allows for release of H2S in RSPII; no correlation between DO and chl-a or DO and sBOD concentrations | Medium | concerned with H2S | |||||||||||||||||||||||||||||||||||||
93 | X | Chen, Xiaobing; Bai, Kaihua; Junfeng, Dai; Lei, Gan; Rad, Saeed; Shahab, Asfandyar; Taha, Mohd Raihan; You, Shaohong | 2019 | Photo-catalytic reactor and detention pond integration: a novel technique for surface water quality enhancement via nano-TiO2 | ENVIRONMENTAL EARTH SCIENCES | Chen_2019_Photo-catalytic | 0 | Lab | Use of nano-TiO2 in a fix-bed reactor to remove nutrients | No | X | X | Yes | Impressive TP removal by the nano TiO2, but the reaction time is very long. Requires very long detention times. Removal of other nutrients was low. | Medium | |||||||||||||||||||||||||||||||||||||||||||||||
94 | X | Chiandet, A. S.; Xenopoulos, M. A. | 2011 | Landscape controls on seston stoichiometry in urban stormwater management ponds | FRESHWATER BIOLOGY | Chiandet_2011_Landscape | 0 | Field | Stormwater/Wet Pond | Ontario | Canada | 2007 | 1 | 50 | Analyze a range of pond morphologies and drainage contexts for impacts on water chemistry and stoichiometry | Grab samples | Once | No | X | X | No | Seston stoichiometry is coupled to catchment characteristics only weakly. Residence time and pond hydrology influences stoichiometry. | Nutrient export during storms and internal pond processes during dry periods | Medium | Strong ecological assessment of stormwater ponds, but may not be very relevant to the literature review | |||||||||||||||||||||||||||||||||||||
95 | X | Chiandet, A. S.; Xenopoulos, M. A. | 2016 | Landscape and morphometric controls on water quality in stormwater management ponds | URBAN ECOSYSTEMS | Chiandet_2016_Landscape | 0 | Field | Stormwater/Wet Pond | Ontario | Canada | 2007 | 1 | 50 | Analyze a range of pond morphologies and drainage contexts for impacts on water chemistry and stoichiometry | Grab samples | Once | No | X | X | X | No | TP was related to pond type and ponds with forebays had very low ambient TP concentrations. Pond depth, length, width, area, and ratios between these parameters were strong predictors of water quality. | Need to identify mechanisms that govern how pond designs influence water quality | Medium | Focuses on how pond design and landscape characteristics influence water quality. 1-time grab samples don't paint a very complete picture, even with 50 different ponds | ||||||||||||||||||||||||||||||||||||
96 | X | Clevenot, L.; Carre, C.; Pech, P. | 2018 | A Review of the Factors That Determine Whether Stormwater Ponds Are Ecological Traps And/or High-Quality Breeding Sites for Amphibians | FRONTIERS IN ECOLOGY AND EVOLUTION | Clevenot_2018_Review | 0 | Impacts on biodiversity | Amphibians | Review | Low | Review of published papers of the effects of stormwater/highway/urban ponds on amphibians; good overview | Could be a good reference | |||||||||||||||||||||||||||||||||||||||||||||||||
97 | X | Clozel, B.; Ruban, V.; Durand, C.; Conil, P. | 2006 | Origin and mobility of heavy metals in contaminated sediments from retention and infiltration ponds | APPLIED GEOCHEMISTRY | Clozel_2006_Origin | 0 | Field | Detention/Retention Pond | France | <2006 | 1 | 4 | Sediments | Once | No | X | No | Patterns in metal speciation were largely similar across all 4 ponds. Cadmium was by far the most available metal. Metal concentrations varied between the particle sizes, with small particles containing the majority of heavy metals. | Medium | ||||||||||||||||||||||||||||||||||||||||||
98 | X | Coelho, C.; Foret, C.; Bazin, C.; Leduc, L.; Hammada, M.; Inacio, M.; Bedell, J. P. | 2018 | Bioavailability and bioaccumulation of heavy metals of several soils and sediments (from industrialized urban areas) for Eisenia fetida | SCIENCE OF THE TOTAL ENVIRONMENT | Coelho_2018_Bioavailability | 0 | Impacts on biodiversity | Invertebrates | Pond metals | ||||||||||||||||||||||||||||||||||||||||||||||||||||
99 | X | Collins, Kelly A.; Lawrence, Timothy J.; Stander, Emilie K.; Jontos, Robert J.; Kaushal, Sujay S.; Newcomer, Tamara A.; Grimm, Nancy B.; Cole Ekberg, Marci L. | 2010 | Opportunities and challenges for managing nitrogen in urban stormwater: A review and synthesis | ECOLOGICAL ENGINEERING | Collins_2010_Opportunities | 0 | Review | Multiple | X | Low | Little focus on ponds, but there's some good background content about the challenges of N removal in ponds | ||||||||||||||||||||||||||||||||||||||||||||||||||
100 | X | Comings, K. J.; Booth, D. B.; Horner, R. R. | 2000 | Storm water pollutant removal by two wet ponds in Bellevue, Washington | JOURNAL OF ENVIRONMENTAL ENGINEERING-ASCE | Comings_2000_Storm | 0 | Field | Stormwater/Wet Pond | Bellevue | Washington | USA | 1996 | 1 | 2 | Direct inflow/outflow monitoring | Event-based | Autosampler | Event-based | X | X | X | Both ponds provided significant TP removal from urban runoff, but the larger pond (in relation to drainage area) had a much longer detention time and demonstrated better P removal. | Pond volume dedicated to water quality treatment appears to be a critical design parameter | High | Good field study on P and metal removal in wet ponds | ||||||||||||||||||||||||||||||||||||