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University of California, San Diego
Campus Treatment Control BMP
Inventory Updated October 2019
Neighborhoods • North Campus
• Eleanor Roosevelt College
• Thurgood Marshall College
• Muir College
• Revelle College
• Theatre District
• School of Medicine
• Gilman Drive
• University Center
• Structural Materials andEngineering Building /Campus Services Complex
• East Campus
• Mesa Housing
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMPHydro dynamic Separator-CDS
unitBioswale
Downspout Disconnection into Vegetated Detention Basin
Downspout Disconnection to Vegetated Swale
Pervious Concrete and Parking Spaces
Rock Detention Basin Rock Swale
Manufacturer/Model CDS Unit N/A N/A N/A N/A N/A N/A
Location North Campus HousingThe Village, West: In the Central
Plaza of the Village West Near the Seating Area
The Village, West: In the Central Plaza of the Village West
North Campus Housing: Throughout The Ecoflats
North Campus Housing Sidewalk North of The Bistro
Parking for North Campus Housing (North of Rady School of Management
and West of Parking Lot)
Parking for Rady School of Management (North or Rady School of
Management, small parking lot)
BMP / LID # A01 A02 A03 A04 A05 A06 A07
BMP or LID BMP BMP LID LID LID BMP LID
Building # 536 537 538 561 567 P357 P351
Map # 1 1 1 1,2 1 1,2 1
Year Installed 2009 2009 2009 2009 2009 2009 2012
Picture *photo coming soon
Area Treated 197,734 SF 14,657 SF 0.15 Acres Roof Drains Throughout Ecoflats 0.5 Acres 2.9 Acres 0.24 Acres
Treated Storm 85th Percentile (0.2in/hr) 85th Percentile (0.2in/hr) 10 Year Storm N/A, installed before 2013 N/A, installed before 2013 2 Year Storm 10 Year Storm
Proposed Flow or Volume 0.55 CFS 0.0475 CFS 0.26 CFS N/A, installed before 2013 N/A, installed before 2013 6.0 CFS 0.80 CFS
Pollutants Treated Debris, sediment, oil and greaseSediments, heavy metals, trash and debris, and oil and grease
Sediment, Heavy MetalsReduces runoff from site, reducing pollutant loadings
Sediment, Dry Weather Flows, Metals
Sediment, Oil, Dry Weather Flows, Metals
Sediment, Oil, Dry Weather Flows, Metals
Design Details
All downspouts tie into a single drainage line which directs discharges into a small underground filtration structure.
The CDS separates particulates and floatable matter through The filter.
Stormceptor storm water treatment systems slow incoming storm water to create a non-turbulent treatment environment, allowing free oils and debris to rise and sediment to settle.
Each Stormceptor system maintains continuous positive treatment of total suspended solids (TSS), regardless of flow rate, treating a wide range of particle sizes, as well as free oils, heavy metals and nutrients that attach to fine sediment.
Designed to detain the storm water runoff from a water quality design storm for some minimum time (e.g., 72 hours) to allow particles and associated pollutants to settle by infiltration.
Main mechanism to remove pollutants is gravitational settling and infiltration.
The infiltration basin is designed to store storm water from a few hours up to three days.
Designed to have a lifetime of about 50 years.
Full of vegetation with an elevated drain to relieve the system of excess water in the case of the 100-year storm.
Division between apartment buildings is filled with rocks, gravel and vegetation to capture and infiltrate roof runoff and reduce peak velocity of storm water runoff.
Reduces impermeable surface area and keeps runoff from building on site.
Alternating strips of impermeable and Pervious Concrete reduce runoff flows.
A thin (1-2”) choker course of uniformly-graded 1/2” gravel material on top of the larger 2-3”stone reservoir stone facilitates placement of the pervious concrete.
Filter fabric are placed on the bottom and sides of the subbase reservoir.
Runoff channels from Parking lot P357 lead through a pretreatment rocky path until it collects in a detention basin.
Uses natural filtering ability of the soil and plants to remove pollutants in storm water runoff by infiltration.
Basin is sized to infiltrate water volume within 72 hours.
In case of 100-year storm, there is a drain that is elevated to prevent water from over flowing.
Runoff from parking lot P351 flows into rocky swale through opening in a cut curb.
Uses natural filtering ability of the soil and plants to remove pollutants from storm water runoff through infiltration.
Rocks help slow peak velocities which maximizes pollutant removal effectiveness by increasing residence time of water in swale.
Storm drain located 5 meters from cut curb, collecting cleaner storm water.
Trash Capture Approved Device
Yes Yes No No No No No
North Campus
North CampusPage 1 of 4
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Modular Wetland Rock Swale Downspout to Vegetated Swale Pervious Concrete Pervious Concrete Pervious Concrete
Bio Clean N/A N/A N/A N/A N/A
Rady School of Management (Northwest tip of the Rady School of
Management)
Rady School of Management (Northwest tip of the Rady School of
Management)Rady School of Management Courtyard
Parking and walkways west of Torrey Pines Village Market and Store
Parking and walkways West of the Bistro
Parking and walkways in-between The Bistro and the Torrey Pines Village
Market and Store
A08 A09 A35 A22 A23 A24
BMP LID LID LID LID LID
581 P581 581 566 567 Between 567 & 566
1 1 1,2,3 1 1 1
2012 2012 2012 2011 2011 2011
*photo coming soon *photo coming soon *photo coming soon
1.33 Acres 0.12 Acres 0.75 Acres 0.5 Acres 0.5 Acres 0.5 Acres
85th percentile (.2in/hr) 10 Year Storm 10 Year Storm N/A, installed before 2013 N/A, installed before 2013 N/A, installed before 2013
0.27 CFS 0.31 CFS 0.31 CFS N/A, installed before 2013 N/A, installed before 2013 N/A, installed before 2013
Sediment, Dry Weather Flows, Metals Sediment, Dry Weather Flows, MetalsReduces runoff from site, reducing pollutant loadings
Sediment, Dry Weather Flows, Metals Sediment, Dry Weather Flows, Metals Sediment, Dry Weather Flows, Metals
Depression in the rain gutter channels water into catch basin.
The vault type BMP holds water and makes it available to grass plants rooted above.
Excess water in the event of a higher flow than proposed runs off into storm drain.
Located underneath the West point of the Rady Building.
Combines rocky trails and dry vegetation to create a treatment train to settle and reduce storm water velocity by infiltration.
An alternative to using piped channels to expel storm water, several of the buildings downspouts dispose of roof runoff into rocky and vegetated channels.
Vegetation and rocks help infiltrate water into the soil, slow peak velocity, and reduce runoff volume from site.
Alternating strips of impermeable and Pervious Concrete reduce runoff flows.
A thin (1-2”) choker course of uniformly-graded 1/2” gravel material on top of the larger 2-3”stone reservoir stone facilitates placement of the pervious concrete.
Base of open-graded crushed aggregate with no fine sands. Must be designed to support surface uses, allow water to flow through, and prevent migration of subbase soils.
Filter fabric are placed on the bottom and sides of the subbase reservoir.
In areas with low permeability soil, an under-drain system may be needed.
Alternating strips of impermeable and Pervious Concrete reduce runoff flows.
A thin (1-2”) choker course of uniformly-graded 1/2” gravel material on top of the larger 2-3”stone reservoir stone facilitates placement of the pervious concrete.
Base of open-graded crushed aggregate with no fine sands. Must be designed to support surface uses, allow water to flow through, and prevent migration of subbase soils.
Filter fabric are placed on the bottom and sides of the subbase reservoir.
In areas with low permeability soil, an under-drain system may be needed.
Alternating strips of impermeable and Pervious Concrete reduce runoff flows.
A thin (1-2”) choker course of uniformly-graded 1/2” gravel material on top of the larger 2-3”stone reservoir stone facilitates placement of the pervious concrete.
Base of open-graded crushed aggregate with no fine sands. Must be designed to support surface uses, allow water to flow through, and prevent migration of subbase soils.
Filter fabric are placed on the bottom and sides of the subbase reservoir.
In areas with low permeability soil, an under-drain system may be needed.
Yes No No No No No
North Campus
North CampusPage 2 of 4
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Inlet Filter Storm Drain Inlet Treatment System Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin
Katchall - Kleenspout Katchall - Kleenspout N/A N/A N/A N/A
The Village at the Torrey Pines Building #5
The Village at Torrey Pines Building #8
Spanos Training Facility Spanos Training Facility Spanos Training Facility Spanos Training Facility
A25 A26 A27 A28 A29 A30
BMP BMP BMP BMP BMP BMP
535 538 525 expansion 525 expansion 525 expansion 525 expansion
1 1 2 2 2 2
2010 2010 2015 2015 2015 2015
4,260 SF 10,600 SF N/A N/A N/A N/A
85th Percentile (0.2in/hr) 85th Percentile (0.2in/hr) N/A N/A N/A N/A
0.01 CFS 0.04 CFS N/A N/A N/A N/A
Trash, debris, sediment, bacteria, heavy metals, nutrients, hydrocarbons
Trash, debris, sediment, bacteria, heavy metals, nutrients, hydrocarbons
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Small underground device to link roof downspouts together to run roof run-off through a filter before going into the storm drain system.Can be easily modified to include openings at base for infiltration and recharging groundwater tables.
Small underground device to link roof downspouts together to run roof run-off through a filter before going into the storm drain system.Can be easily modified to include openings at base for infiltration and recharging groundwater tables.
Area across from Spanos Training Facility is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from Spanos Training Facility is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from Spanos Training Facility is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from Spanos Training Facility is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Yes Yes Yes Yes Yes Yes
North Campus
North CampusPage 3 of 4
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Storm Water Detention Vault Inlet Filter Bioswale
N/A Katchall - Kleenspout N/A
RIMAC Annex FieldThe Village at Torrey Pines West
Building #6The Village at Torrey Pines West
Building #7
A31 A33 A34
BMP BMP BMP
471 536 537
4 1 1
2013 2010 2010
* photo coming soon
N/A, designed before 2013 5,700 SF 24,624 SF
N/A, designed before 2013 85th Percentile (0.2in/hr) 85th Percentile (0.2in/hr)
N/A, designed before 2013 0.02 CFS 0.0798 CFS
Trash/Litter, Sediment, Dry Weather Flows
Trash, debris, sediment, bacteria, heavy metals, nutrients, hydrocarbons
Sediments, heavy metals, trash and debris, and oil and grease
Underground detention systems are sized to provide extended detention of the streambank protection volume over 24 hours and temporarily store the volume of runoff required to provide the desired flood protection. Minimum 3,000 psi structural reinforced concrete may be used for underground detention vaults. All construction joints must be provided with water stops. Cast-in-place wall sections must be designed as retaining walls. The maximum depth from finished grade to the vault invert should be 20 feet.
Small underground device to link roof downspouts together to run roof run-off through a filter before going into the storm drain system.Can be easily modified to include openings at base for infiltration and recharging groundwater tables.
Designed to detain the storm water runoff from a water quality design storm for some minimum time (e.g., 72 hours) to allow particles and associated pollutants to settle by infiltration.
Yes Yes Yes
North Campus
North CampusPage 4 of 4
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMPDownspout Disconnection to Rock
SwaleRock Swale Rock Swale Rock Swale
Manufacturer/Model N/A N/A N/A N/A
Location Hopkins Parking GarageThe Wedge Phase III and IV: South of Rady School of Management Building
The Wedge Phase III and IV: South of Rady School of Management Building
Hopkins Parking Garage
BMP / LID # A13 A12 A11 A21
BMP or LID LID LID LID LID
Building # 495 South of 581 South of 581 495
Map # 4 1,3 1,3 4
Year Installed 2007 2009 2009 2007
Picture
Area Treated Roof of parking garage 1.98 Acres Roof of parking garage Roof of Parking Garage and Sidewalk
Treated Storm N/A, installed before 2013 85th percentile (0.54 in/hr) N/A, installed before 2013 N/A, installed before 2013
Proposed Flow or Volume N/A, installed before 2013 0.739 CFS N/A, installed before 2013 N/A, installed before 2013
Pollutants TreatedDry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Reduces runoff from site, reducing pollutant loadings
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Design Details
Area across from Goodies Market is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area South of Rady Management Building is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Slows down water to allow for sedimentation and infiltration before it reaches drain at the base of the slope.
Reduces impermeable surface area or region, keeps runoff from building on site. A large treatment train that contains gravel, coble and vegetation to reduce storm water velocities.
Gravel channel meanders across the slope, reducing the effects of erosion.
Each floor of Hopkins garage drains into this side cobble swale.
The large cobbles help slow the water velocity, and allow water to infiltrate reducing the volume of runoff from the site.
Drain at the bottom of slope is surrounded by large cobbles as well.
Area across from Goodies Market is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Trash Capture Approved Device
No No No No
Eleanor Roosevelt College
Eleanor Roosevelt CollegePage 1 of 1
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP Bio-filtration Basin Bio-filtration Basin Rock Swale Storm Drain Inlet Treatment System
Manufacturer/Model N/A N/A N/A Bio Clean Grate Inlet Filter
Location Goodies Market Goodies Market Bike Path north of Faculty ClubUCSD Extension Parking Lot p303 (North of stairs on west side of
parking lot)
BMP / LID # A14 A10 B06 B30
BMP or LID BMP BMP LID BMP
Building # 375 375 270 326
Map # 4,6 4,6 6,7 5
Year Installed 2009 2009 2015
Picture
Area Treated Sidewalk runoff 0.75 Acres Loading dock and trash storage area Parking lot and sidewalk run-off
Treated Storm N/A, installed before 2013 10 Year Storm N/A N/AProposed Flow or Volume
N/A, installed before 2013 2.25 CFS N/A
Pollutants TreatedDry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris, Oil
Dry Weather Flows, Oil & Grease, Gasoline, Diesel, PAHs, Trash, Sediments, Foliage, Debris
Design Details
Area across from Goodies Market is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from Goodies Market is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Runoff from Faculty Club loading dock and trash storage area flows into a vegetated swale through opening/pipe in a cut curb.
Uses natural filtering ability of the soil and plants to remove pollutants from storm water runoff through infiltration.
Rocks help slow peak velocities which maximizes pollutant removal effectiveness by increasing residence time of water.
Storm Drain Inlet Treatment System Collects debris and sediment in catch basin before it can enter the storm drain system.
Also functions to filter out smaller pollutants by filtering runoff water through a BioSorb Hydrocarbon Boom (media filled sock) before it can be discharged into the ocean.
Trash Capture Approved Device
Yes Yes No Yes
Thurgood Marshall College
Thurgood Marshall CollegePage 1 of 1
University of California, San Diego Campus Treatment Control Inventory Updated October 2019
Sub-Basin
BMP Pervious Concrete Downspout to Vegetated Swale Pervious Concrete Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin
Manufacturer/Model N/A N/A N/A N/A N/A N/A
Location Tamarack Apartments Tamarack Apartments Tata Hall Tata Hall Tata Hall Tata Hall
BMP / LID # B01 B14 B11 B25 B26 B27
BMP or LID LID LID LID BMP BMP BMP
Building # 240-241 241 116 116 116 116
Map # 11 11 11 11 11 11,17
Year Installed 2011 2011 2016 2016 2016 2016
Picture
Area Treated 1270 SF Roof of building, LID only 0.04 AC 0.16 AC 0.41 AC 0.80 AC
Treated Storm 85th Percentile N/A 85th Percentile 85th Percentile 85th Percentile 85th Percentile
Proposed Flow or Volume 52.9 CF N/A 55 CF 322 CF 448 CF 2014 CF
Pollutants TreatedSediment, nutrients, trash, metals, oil and grease, organics
Reduces runoff from site, reducing pollutant loadings
Sediments, Heavy Metals, Oil & Grease, Dry Weather Flow
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Design Details
Attributing to Tamaracks LEED Gold certification is its ability to infiltrate all of the storm water on site.
Attributing to Tamaracks LEED Gold certification is its ability to infiltrate all of the storm water on site.
Detention basins are located around building with cobbles and vegetation.
Roof runoff drains into basins, where the water infiltrates into the soil, reducing storm water runoff from the site.
A thin (1-2”) choker course of uniformly-graded 1/2” gravel material on top of the larger 2-3”stone reservoir stone facilitates placement of the pervious concrete.
Base of open-graded crushed aggregate with no fine sands. Must be designed to support surface uses, allow water to flow through, and prevent migration of subbase soils.
Filter fabric are placed on the bottom and sides of the subbase reservoir.
In areas with low permeability soil, an under-drain system may be needed.
Area between Tata Hall and the Gym is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area between Tata Hall and the Gym is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area north of Pac Hall Loading Dock is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Trash Capture No No No Yes Yes Yes
Muir
MuirPage 1 of 2
University of California, San Diego Campus Treatment Control Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture
Bio-filtration Swale Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin
N/A N/A N/A N/A N/A N/A
Muir Field Tata Hall Tata Hall Tata Hall Tata Hall Tata Hall
B28 B31 B32 B33 B34 B35
BMP BMP BMP BMP BMP BMP
Muir Field 116 116 116 116 116
11 11 11 11 11 11
2016 2018 2018 2018 2018 2018
3.34 AC
85th Percentile 85th Percentile 85th Percentile 85th Percentile 85th Percentile 85th Percentile
0.43 CFS 246 CF 499 CF 1236 CF 1817 CF 431 CF
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Sediments, Heavy Metals, Organic Compounds, Trash & Debris
Area north of Pac Hall Loading Dock is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area west of Tata Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area west of Tata Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area west of Tata Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area west of Tata Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area west of Tata Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Yes Yes Yes Yes Yes Yes
Muir
MuirPage 2 of 2
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMPDownspout Disconnection to a Vegetated Swale
Vegetated Roof Downspout to Vegetated Swale Rock Swale Rock Swale Vegetated Roof
Manufacturer/Model N/A N/A N/A N/A N/A N/A
LocationHousing and Dining Admin Building South Side
Revelle Housing (Keeling Apartments -south side)
Revelle Housing (Central Plaza of Keeling Apartments)
Revelle Parking Lot, and Revelle Housing (Keeling Apartments)
House and Dining BuildingRevelle Housing (Keeling
Apartments)
BMP / LID # B02 B03 B04 B05 B12 B13
BMP or LID LID LID LID LID LID LID
Building # 129 189 189 P104 and 188-189 129 189
Map # 17 17 17 17 17 17
Year Installed 2012 2011 2011 2011 2009 2009
Picture
Area Treated 0.47 Acres 0.82 Acres 0.82 Acres Parking lot, building, and basketball court runoff
3.09 AC Roof
Treated Storm 85th percentile (0.53 in/hr) 100 Year Storm 85th percentile (0.53 in/hr) 85th percentile (0.53 in/hr) 85th Percentile N/A, installed before 2013
Proposed Flow or Volume 0.313 CFS 0.61 CFS 0.60 CFS 2.13 CFS 2.2 CFS N/A, installed before 2013
Pollutants TreatedReduces runoff from site, reducing pollutant loadings
Reduces runoff from roof, Sediment, Trash/Debris, Bacteria, Nutrients, Heavy Metals
Reduces runoff from site, reducing pollutant loadings
Dry Weather Flows, Sediment, Metals, Trash/Debris
Trash, Hydrocarbons, Sediment, Nutrients, metals, organics
Reduces runoff from roof, Sediment, Trash/Debris, Bacteria, Nutrients, Heavy Metals
Design Details
An alternative to using piped channels to expel storm water, several of the buildings downspouts dispose of roof runoff into rocky and vegetated channels.
Vegetation and rocks help infiltrate water into the soil, slow peak velocity, and reduce runoff volume from site.
Uses light-weight soil mixes to reduce loads.
Contains several layers of protective materials to convey water away from the roof deck. These generally include (from the bottom up) a waterproof membrane, a root barrier, a layer of insulation, a drainage layer, a filter fabric for fine soils, the engineered growing medium or soil substrate, and the plant material.
Sedums and succulents, a common vegetated roof plant, have fleshy water-storing leaves that do not burn easily, even in near drought conditions.Excess water flows is passed to detention basin.
Attributes to Revelle Apartments LEED Platinum certification (the highest award for efficiency and sustainability).
Runoff from building 189 roof drains into basin.
Vegetation and cobbles help infiltrate water into soil.
Excess water in the case of a large storm is overflown to a large cobble field as part of a treatment train.
Part of treatment train for all the storm water that hits the Revelle apartments and parking lot P104.
The varying sizes and assortment of cobbles and vegetation add aesthetic value while maximizing pollutant removal effectiveness by increasing water residence time in swale.
Rocks help slow rain velocities and allow sedimentation of pollutants.
Beginning of Treatment train for the water from parking lot.
Large cobbles help remove large sediment and debris.
Water is then directed to large rock swale.
Vegetation and cobbles help infiltrate water into the soil, slow peak velocity, and reduce runoff volume from site.
Pollutant removal effectiveness can be maximized by increasing residence time of water in swale using vegetation and gravel.
Uses light-weight soil mixes to reduce loads.
Contains several layers of protective materials to convey water away from the roof deck. These generally include (from the bottom up) a waterproof membrane, a root barrier, a layer of insulation, a drainage layer, a filter fabric for fine soils, the engineered growing medium or soil substrate, and the plant material.
Sedums and succulents, a common vegetated roof plant, have fleshy water-storing leaves that do not burn easily, even in near drought conditions.Excess water flows is passed to detention basin.
Trash Capture No No No No No No
Revelle College
Revelle CollegePage 1 of 2
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture
Bio-filtration Swale Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin
N/A N/A N/A N/A N/A N/A
Charles David Keeling Apartments Basketball Courts
Blake Hall Argo Hall Revelle CommonsBetween Revelle Commons and
Argo HallBetween Blake Hall and Argo Hall
B15 B16 B20 B21 B22 B23
BMP BMP BMP BMP BMP BMP
Scholars Drive South 123 125 127 125 125
17 17 17 17 17 17
2011 2013 2015 2015 2015 2015
3.91 AC N/A N/A N/A N/A N/A
85th Percentile N/A N/A N/A N/A N/A
2.81 CFS N/A N/A N/A N/A N/A
Trash, Hydrocarbons, Sediment, Nutrients, metals, organics
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Designed to detain the storm water runoff from a water quality design storm for some minimum time (e.g., 72 hours) to allow particles and associated pollutants to settle by infiltration.
Area across from Blake Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from Argo Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from Revelle Commons is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from Argo Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area between Argo Hall and Blake Hall is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Yes Yes Yes Yes Yes Yes
Revelle College
Revelle CollegePage 2 of 2
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-BasinBMP Pervious Asphalt Bio-filtration Swale Bio-filtration Swale Bio-filtration Basin Bio-filtration Basin
Manufacturer/Model N/A N/A N/A N/A N/A
Location Revelle Switch StationWalkway and landscape from p102
to The La Jolla Play HouseWalkway and landscape south of
Mandell Weiss ForumRevelle Switch Station
Revelle College Hardscape Runoff Improvements
BMP / LID # B10 B18 B19 B24 B36
BMP or LID LID BMP BMP BMP BMP
Building # Revelle Switch Station 177 177 Revelle Switch Station 171
Map # 18 21 21 18 18
Year Installed 2015 2014 2014 2016 2018
Picture
Area Treated 0.1 AC 0.3 AC 0.3 AC 0.22 AC 4.3 AC
Treated Storm 85th Percentile 85th Percentile 85th Percentile 85th Percentile 85th Percentile
Proposed Flow or Volume 163 CF 0.03 CFS 0.03 CFS 602 CF 2,845 CF
Pollutants TreatedReduces run‐off volume, Sediment, Metals, Pathogens, Oil & Grease, Nutrients, Organics
Trash, Hydrocarbons, Sediment, Nutrients, metals, organics
Trash, Hydrocarbons, Sediment, Nutrients, metals, organics
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Design Details
From the bottom up, the standard porous asphalt pavement structure consists of: 1) An uncompacted subgrade to maximize the infiltration rate of the soil. 2) A geotextile fabric that allows water to pass through, but prevents migration of fine material from the subgrade into the stone recharge bed. 3) A stone recharge bed consisting of clean single-size crushed large stone with about 40 percent voids. This serves as a structural layer and also temporarily stores storm water as it infiltrates into the soil below.4) A stabilizing course or “chokercourse” consisting of a cleansingle-size crushed stone smallerthan the stone in the rechargebed to stabilize the surface forpaving equipment.5) An open-graded asphalt surfacewith interconnected voids thatallow storm water to flow throughthe pavement into the stonerecharge bed.
Designed to detain the storm water runoff from a water quality design storm for some minimum time (e.g., 72 hours) to allow particles and associated pollutants to settle by infiltration.
Designed to detain the storm water runoff from a water quality design storm for some minimum time (e.g., 72 hours) to allow particles and associated pollutants to settle by infiltration.
Area next to the Revelle Switch Station is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from The La Jolla Playhouse is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Trash Capture Approved Device No Yes Yes No No
Theatre District
Theatre DistrictPage 1 of 1
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP Vegetated Roof Filterra Unit (Tree box) Hydrodynamic Separator Rock SwaleDownspout Disconnection to Rock Swale
Downspout Disconnection to Rock Swale
Stormceptor Hydrodynamic Separator
Filterra 1
Manufacturer/Model N/A CONTECH - Filterra Unit CONTECH - CDS Unit N/A N/A N/A Imbrium - Stormceptor STC Imbrium - Stormceptor STC
LocationAtkinson Graduate Student Housing
Atkinson Graduate Student Housing
Atkinson Graduate Student HousingAtkinson Graduate Student Housing
Biomedical Research Facility II Biomedical Research Facility II Medical Education and Telemedicine Building Biomedical Research Facility II
BMP / LID # C03 C04 C05 C06 C07 C09 C10 C11
BMP or LID LID BMP BMP LID LID LID BMP BMP
Building #881
881 881 881 Between 873 and 875 875 845 875
Map # 19,20 19 19 19,20 19,20 19,20 12,19,20 19,20
Year Installed 2012 2012 2012 2012 2014 2014 2011 2014
Picture * photo coming soon
Area Treated Roof of building Parking lot and building runoff 2.96 AC Parking lot runoff, LID only Roof and sidewalk runoff Roof of building Roof and sidewalk runoff Street and parking runoff 0.38 AC
Treated Storm N/A, installed before 2013 N/A, installed before 2013 85th Percentile N/A, installed before 2013 N/A, designed before 2013 N/A, designed before 2013 N/A, installed before 2013 2 year
Proposed Flow or Volume N/A, installed before 2013 N/A, installed before 2013 0.35 CFS N/A, installed before 2013 N/A, designed before 2013 N/A, designed before 2013 N/A, installed before 2013 0.10 CFS
Pollutants TreatedReduces runoff from site, reducing pollutant loadings
Sediment, Metals, Dry Weather Flows
Sediment, Metals, Trash/ DebrisDry Weather Flows, Sediment, Metals, Trash/ Debris
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Reduces runoff from site, reducing pollutant loadings
Debris, sediment, oil and greasePhosphorus, nitrogen, Heavy metal,
oil & grease
Design Details
All downspouts lead to vegetated landscape surrounding the parameter of the building.
Contributing toward the buildings LEED Silver rating.
Filterra Bioretention Systems are design to remove pollutants and total suspended solids.
Runoff is directed into throat opening, which is then treated by passing through specialized filter media and vegetation roots before it is discharged through small under drain.
Requires little space and is very effective.
CDS unit uses an indirect screening technique to treat storm water runoff and capture suspended solids, fine sands and larger particles.
Also captures and retains trash, debris and 70% of oil/ grease in runoff water using oil baffles.
Area behind Atkinson Graduate Housing has a treatment train filled with rocks and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area along the side of the building is filled with rocks to help capture runoff, infiltrate water into the soil, slow peak velocity, and reduce runoff volume from site.
Roof drains from Biomedical Research Facility II discharge into a treatment train filled with rocks and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Stormceptor storm water treatment systems slow incoming storm water to create a non-turbulent treatment environment, allowing free oils and debris to rise and sediment to settle.
Each Stormceptor system maintains continuous positive treatment of total suspended solids (TSS), regardless of flow rate, treating a wide range of particle sizes, as well as free oils, heavy metals and nutrients that attach to fine sediment.
Retention tank is underground and meant to slow the peak velocity of runoff.
Stormceptor storm water treatment systems slow incoming storm water to create a non-turbulent treatment environment, allowing free oils and debris to rise and sediment to settle.
Each Stormceptor system maintains continuous positive treatment of total suspended solids (TSS), regardless of flow rate, treating a wide range of particle sizes, as well as free oils, heavy metals and nutrients that attach to fine sediment.
Trash Capture Approved Device
No Yes Yes No No No Yes Yes
School of Medicine
School of MedicinePage 1 of 3
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Drywell Bio-Filtration Basin Porous Asphalt Porous Asphalt Porous Asphalt Rock Swale Hydrodynamic Separator Storm Water Detention Vault
Torrent Resources - MaxWell Type IV
N/A N/A N/A N/A N/A CONTECH - CDS UnitRainstore Storm Water Storage Chamber
Osler Parking Lot p610 Osler Parking Lot p610 Osler Parking Lot p610 Osler Parking Lot p610 Osler Parking Lot p610 Rita Atkinson Residence Building Rita Atkinson Residence BuildingSouth West Corner of Medical Education and Telemedicine
C21 C17 C13 C14 C15 C12 C16 C18
BMP BMP LID LID LID LID BMP BMP
p610 p610 p610 p610 p610 881 881 845
12, 18, 19 12,18,19 12,18 12,18,19 12,18,19 19,20 19,20 12,19,20
2016 2016 2016 2016 2016 2012 2012 2012
1.22 AC 0.54 AC 0.28 AC 0.22 AC 0.18 AC N/A, installed before 2013 N/A, installed before 2013 0.16 AC
85th Percentile 85th Percentile 87th Percentile 86th Percentile 85th Percentile N/A, installed before 2013 N/A, installed before 2013 10-year
0.90 CFS 1087 CF 375 CF 329 CF 273 CF N/A, installed before 2013 N/A, installed before 2013 667 CF
Sediments, Heavy Metals, Oil & Grease, Dry‐Weather Flow
Trash, hydrocarbons, sediment, nutrients, metals, organics
Sediments, Heavy Metals, Oil & Grease
Sediments, Heavy Metals, Oil & Grease
Sediments, Heavy Metals, Oil & Grease
Sediment, Oil, Dry Weather Flows, Metals
Debris, sediment, oil and grease Sediments, trash
Maintain existing drainage patterns and connect to existing storm drain line. Dry well system used to pre-treat infiltration drainage to comply with MS4 water quality treatments.
Area across from parking lot p610 is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
From the bottom up, the standard porous asphalt pavement structure consists of: 1) An uncompacted subgrade to maximize the infiltration rate of the soil. 2) A geotextile fabric that allows water to pass through, but prevents migration of fine material from the subgrade into the stone recharge bed. 3) A stone recharge bed consisting of clean single-size crushed large stone with about 40 percent voids. This serves as a structural layer and also temporarily stores storm water as it infiltrates into the soil below.4) A stabilizing course or “choker course” consisting of a clean single-size crushed stone smaller than the stone in the recharge bed to stabilize the surface for paving equipment.5) An open-graded asphalt surface with interconnected voids that allow storm water to flow through the pavement into the stone recharge bed.
From the bottom up, the standard porous asphalt pavement structure consists of: 1) An uncompacted subgrade to maximize the infiltration rate of the soil. 2) A geotextile fabric that allows water to pass through, but prevents migration of fine material from the subgrade into the stone recharge bed. 3) A stone recharge bed consisting of clean single-size crushed large stone with about 40 percent voids. This serves as a structural layer and also temporarily stores storm water as it infiltrates into the soil below.4) A stabilizing course or “choker course” consisting of a clean single-size crushed stone smaller than the stone in the recharge bed to stabilize the surface for paving equipment.5) An open-graded asphalt surface with interconnected voids that allow storm water to flow through the pavement into the stone recharge bed.
From the bottom up, the standard porous asphalt pavement structure consists of: 1) An uncompacted subgrade to maximize the infiltration rate of the soil. 2) A geotextile fabric that allows water to pass through, but prevents migration of fine material from the subgrade into the stone recharge bed. 3) A stone recharge bed consisting of clean single-size crushed large stone with about 40 percent voids. This serves as a structural layer and also temporarily stores storm water as it infiltrates into the soil below.4) A stabilizing course or “choker course” consisting of a clean single-size crushed stone smaller than the stone in the recharge bed to stabilize the surface for paving equipment.5) An open-graded asphalt surface with interconnected voids that allow storm water to flow through the pavement into the stone recharge bed.
Runoff from Rita Atkinson Building, flows into rocky swale through opening in a cut curb.
Uses natural filtering ability of the soil and plants to remove pollutants from storm water runoff through infiltration.
Rocks help slow peak velocities which maximizes pollutant removal effectiveness by increasing residence time of water in swale.
Storm drain located down stream collects cleaner storm water.
CDS unit uses an indirect screening technique to treat storm water runoff and capture suspended solids, fine sands and larger particles.
Also captures and retains trash, debris and 70% of oil/ grease in runoff water using oil baffles.
Underground detention systems are sized to provide extended detention of the streambank protection volume over 24 hours and temporarily store the volume of runoff required to provide the desired flood protection. Minimum 3,000 psi structural reinforced concrete may be used for underground detention vaults. All construction joints must be provided with water stops. Cast-in-place wall sections must be designed as retaining walls. The maximum depth from finished grade to the vault invert should be 20 feet.
Yes Yes No No No No Yes Yes
School of Medicine
School of MedicinePage 2 of 3
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Bio-filtration Swale Media Filter Bio-Filtration Basin Bio-Filtration Basin
N/A N/A N/A N/A
East of Biomedical Research Facility II
West of Biomedical Research Facility II
West of Satellite Utility Plant South of Osler Parking Structure
C19 C20 C22 C23
BMP BMP BMP BMP
903 903 Satellite Utility Plant Osler Parking Structure
19,20 19,20 19 19
2014 2014 2017 2018
0.83 AC 23000 SF 1.27 AC 5.85 AC
10-year 0.5 in 2 Year 2 Year
120 CF 772 CF 1560 CF 6,902 CF
Organics, silts and sandSediment, Nutrients, Trash, Metals, Bacteria, Oil and Grease, Organics,
Dry Weather Flows
Trash/Litter, Sediment, Dry Weather Flows
Trash, hydrocarbons, sediment, nutrients, metals, organics
Designed to detain the storm water runoff from a water quality design storm for some minimum time (e.g., 72 hours) to allow particles and associated pollutants to settle by infiltration.
The media filter contains bed mix that contains crushed rock, dolomite, gypsum, and pearlite to treat dry weather flows and storm water by physical filtration, chemical precipitation, sorption, cation exchange, and biological uptake and metabolism
-18" Soil Media-12" ASTM No. 8 Stone per Post Construction Storm water Management Checklist-4" perforated underdrain
building roof drains and site designed hardscape will be surface routed through landscape areas and to bio retention basin. Grading will route these flows to collection ponds where treatment will be accomplished and retention applied for outlet control. In this bio retention basin, runoff will be stored and infiltrate through strategic soil media to filter and slowly release runoff to the storm drain system downstream.
-18" Soil Media-12" ASTM No. 8 Stone per Post Construction Storm water Management Checklist-4" perforated underdrain
Yes Yes Yes Yes
School of Medicine
School of MedicinePage 3 of 3
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMPStorm Drain Inlet Treatment System
Storm Drain Inlet Treatment SystemStorm Drain Inlet Treatment System
Storm Drain Inlet Treatment System
Bio-filtration Basin
Manufacturer/Model Bio Clean Grate Inlet Filter Bio Clean Grate Inlet Filter Bio Clean Grate Inlet Filter Bio Clean Grate Inlet Filter N/A
LocationSouth East Side of Gilman Drive and Villa La Jolla Drive
North East Side of Gilman Drive and Villa La Jolla Drive
Gilman Drive west of Gilman BridgeGilman Drive, west of Gilman Bridge
North side of Gilman Drive, west of Gilman Bridge
BMP / LID # D09 D10 D11 D12 D05
BMP or LID BMP BMP BMP BMP BMP
Building # Gilman Bridge Gilman Bridge Gilman Drive Gilman Drive Gilman Drive
Map # 14 14 16 16 16
Year Installed 2016 2016 2016 2016 2016
Picture *photo coming soon
Area Treated N/A N/A N/A N/A 0.14 ACTreated Storm N/A N/A N/A N/A 85th Percentile
Proposed Flow or Volume N/A N/A N/A N/A 251.6 CF
Pollutants TreatedTrash, debris, sediment, bacteria,
heavy metals, nutrients, hydrocarbonsTrash, debris, sediment, bacteria, heavy
metals, nutrients, hydrocarbons
Trash, debris, sediment, bacteria, heavy metals, nutrients,
hydrocarbons
Trash, debris, sediment, bacteria, heavy metals, nutrients,
hydrocarbons
Dry Weather Flows, Sediment, Metals, Trash/ Debris, Nutrients
Design Details
1. Storm Drain Inlet Treatment System Collects debris and sediment in a catch basin before it can enter the storm drain system.2. Also functions to filter out smaller pollutants by filtering runoff water through a BioSorb Hydrocarbon Boom (media filled sock) before it can be discharged into the ocean.
1. Storm Drain Inlet Treatment System Collects debris and sediment in a catch basin before it can enter the storm drain system.2. Also functions to filter out smaller pollutants by filtering runoff water through a BioSorb Hydrocarbon Boom (media filled sock) before it can be discharged into the ocean.
1. Storm Drain Inlet Treatment System Collects debris and sediment in a catch basin before it can enter the storm drain system.2. Also functions to filter out smaller pollutants by filtering runoff water through a BioSorb Hydrocarbon Boom (media filled sock) before it can be discharged into the ocean.
1. Storm Drain Inlet Treatment System Collects debris and sediment in a catch basin before it can enter the storm drain system.2. Also functions to filter out smaller pollutants by filtering runoff water through a BioSorb Hydrocarbon Boom (media filled sock) before it can be discharged into the ocean.
Area across from p406 is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Trash Capture Approved Device
Yes Yes Yes Yes Yes
Gilman Drive
Gilman DrPage 1 of 2
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Hydrodynamic Separator
N/A N/A N/A CONTECH - CDS Unit
North side of Gilman Drive, west of Gilman Bridge
South side of Gilman Drive, west of Gilman Bridge
South side of Gilman Drive west of Gilman Bridge
Gilman Drive west of Gilman Bridge
D06 D07 D08 D14
BMP BMP BMP BMP
Gilman Drive Gilman Drive Gilman Drive 763
16 16 16 16
2016 2016 2016 2016
*photo coming soon *photo coming soon *photo coming soon
0.55 AC 1.4 AC 1.42 AC 0.97 AC85th Percentile 85th Percentile 85th Percentile 85th Percentile
N/A 2623.4 CF 2551.5 CF 0.5 CFS
Dry Weather Flows, Sediment, Metals, Trash/ Debris, Nutrients
Dry Weather Flows, Sediment, Metals, Trash/ Debris, Nutrients
Dry Weather Flows, Sediment, Metals, Trash/ Debris, Nutrients
Debris, sediment, oil and grease
Area on the north of the curve in Gilman Road west of the bridge is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area on the south of the curve in Gilman Road west of the bridge is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Area across from the VA west of the Gilman Bridge is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
CDS unit uses an indirect screening technique to treat storm water runoff and capture suspended solids, fine sands and larger particles.
Also captures and retains trash, debris and 70% of oil/ grease in runoff water using oil baffles.
Yes Yes Yes Yes
Gilman Drive
Gilman DrPage 2 of 2
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-BasinBMP Vegetated Swale Pervious Concrete Rock Swale Rock Swale Rock Swale Rock Swale
Manufacturer/Model N/A N/A N/A N/A N/A N/A
Location Parking Lot P405University Center-Student
Services CenterPrebys Music Center Faculty Club / Bike Path Faculty Club / Bike Path Faculty Club / Bike Path
BMP / LID # C08 C01 C02 B07 B08 B09
BMP or LID LID LID LID LID LID LID
Building # P405 931 955 270 270 Bike Path
Map # 14 19,20 14 6,12 6,7 6,7
Year Installed 2009 2007 2009 2016 2016 2016
Picture
Area Treated Parking lot runoff Roof and building runoff 1.9 Acres N/A N/A N/A
Treated Storm N/A, installed before 2013 N/A, installed before 2013 10 Year Storm N/A N/A N/A
Proposed Flow or Volume N/A, installed before 2013 N/A, installed before 2013 2591 Cubic Ft N/A N/A N/A
Pollutants TreatedSediment, Oil, Dry Weather Flows, Metals, Trash/Debris
Sediment, Metals, Dry Weather Flows
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Sediment, Oil, Dry Weather Flows, Metals
Sediment, Oil, Dry Weather Flows, Metals
Sediment, Oil, Dry Weather Flows, Metals
Design Details
Runoff from parking lot P405 flows into rocky swale through opening in a cut curb.
Uses natural filtering ability of the soil and plants to remove pollutants from storm water runoff through infiltration.
Rocks help slow peak velocities which maximizes pollutant removal effectiveness by increasing residence time of water.
A thin (1-2”) choker course of uniformly-graded 1/2” gravel material on top of the larger 2-3”stone reservoir stone facilitates placement of the pervious concrete.
Base of open-graded crushed aggregate with no fine sands. Must be designed to support surface uses, allow water to flow through, and prevent migration of subbase soils.
Filter fabric are placed on the bottom and sides of the subbase reservoir.
In areas with low permeability soil, an under-drain system may be needed.
Areas to the north and west of the music center is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration and adds aesthetic value.
Pollutant removal effectiveness is maximized by being stored and settled in 72” underground pipe.
Reduces impermeable surface area or region, keeps runoff from building on site.
Runoff from the Faculty Club flows into rocky swale through opening in a cut curb.
Uses natural filtering ability of the soil and plants to remove pollutants from storm water runoff through infiltration.
Rocks help slow peak velocities which maximizes pollutant removal effectiveness by increasing residence time of water in swale.
Storm drain located down stream collects cleaner storm water.
Runoff from the Faculty Club flows into rocky swale through opening in a cut curb.
Uses natural filtering ability of the soil and plants to remove pollutants from storm water runoff through infiltration.
Rocks help slow peak velocities which maximizes pollutant removal effectiveness by increasing residence time of water in swale.
Storm drain located down stream collects cleaner storm water.
Runoff from the Faculty Club flows into rocky swale through opening in a cut curb.
Uses natural filtering ability of the soil and plants to remove pollutants from storm water runoff through infiltration.
Rocks help slow peak velocities which maximizes pollutant removal effectiveness by increasing residence time of water in swale.
Storm drain located down stream collects cleaner storm water.
Trash Capture Approved Device No No No No No No
University Center
University CenterPage 1 of 2
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-BasinBMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
University CenterBio-filtration Basin
N/A
Faculty Club / Bike Path
B17
BMP
Bike Path
6,7
2015
N/A
N/A
N/A
Dry Weather Flows, Sediment, Metals, Trash/ Debris
Area across from library walk is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Yes
University CenterPage 2 of 2
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP Unit Paver Vegetated SwaleDownspout Disconnection to Vegetated Swale
Jellyfish Storm Drain Treatment System
Storm Drain Inlet Treatment System Water Polishing Treatment System
Manufacturer/Model N/A N/A N/A CONTECH - Jellyfish Unit BIOCLEAN - Storm Drain Inlet BIOCLEAN - Water Polisher
LocationStructural and Materials Engineering Building
Structural and Materials Engineering Building
Structural and Materials Engineering All Around Building
Computer Science and Engineering Building
CSC Parking Lot 507 CSC Northeast Yard
BMP / LID # D01 D02 D03 D15 D04 D13
BMP or LID LID LID LID BMP BMP BMP
Building # 734 734 734 643 West Side of P507 North Yard of CSC
Map # 14,15,16 8,15 8,14,15 8,9 10 10
Year Installed 2012 2012 2012 2017 2016
Picture
Area Treated Parking area Building runoff Roof of building Parking Lot Area
Treated Storm N/A, designed before 2013 N/A, designed before 2013 N/A, designed before 2013 N/A
Proposed Flow or Volume N/A, designed before 2013 N/A, designed before 2013 N/A, designed before 2013 1.25 CFS max
Pollutants TreatedReduces runoff from site, reducing pollutant loadings
Coarse to Fine Sediments and attached pollutants
Reduces runoff from site, reducing pollutant loadings
Trash/Litter, Sediment, Dry Weather Flows, Nutrients
Dry Weather Flows, Oil & Grease, Gasoline, Diesel, PAHs, Trash, Sediments, Foliage, Debris
TSS, phosphorus, oil& grease, copper, lead, zinc, bacteria
Design Details
A thin (1-2”) choker course of uniformly-graded 1/2” gravel material on top of the larger 2-3”stone reservoir stone facilitates placement of the pervious concrete.
Base of open-graded crushed aggregate with no fine sands. Must be designed to support surface uses, allow water to flow through, and prevent migration of subbase soils.
Filter fabric are placed on the bottom and sides of the subbase reservoir.
In areas with low permeability soil, an under-drain system may be needed.
Designed to temporarily hold storm water runoff for up to 72 hours before infiltrating into soil.
Infiltration through the sub-soils serves to remove sediments and attached pollutants.
Designed to reduce runoff volumes, and reduce downstream peak flows by infiltrating all storm water on site.
Vegetation and rocks/gravel help capture roof runoff, infiltrate water into the soil, slow peak velocity, and reduce runoff volume from site.
Pollutant removal effectiveness can be maximized by increasing residence time of water in swale using vegetation and gravel.
Jellyfish Filter is a storm water quality treatment technology featuring pretreatment and membrane filtration in a compact stand-alone system. Jellyfish Filter removes floatables, trash, oil, debris, TSS, fine silt-sized particles, and a high percentage of particulate-bound pollutants; including phosphorus and nitrogen, metals and hydrocarbons.
Storm Drain Inlet Treatment System Collects debris and sediment in catch basin before it can enter the storm drain system.
Also functions to filter out smaller pollutants by filtering runoff water through a BioSorb Hydrocarbon Boom (media filled sock) before it can be discharged into the ocean.
The Bio Clean Water Polisher’s separation chamber and up flow filter are designed to allow for the use of vacuum removal of captured materials in the sediment chamber. The chamber is serviceable by centrifugal compressor vacuum units without causing damage to the filter or during normal cleaning and maintenance. Filters can be cleaned and vacuumed from the standard manhole access or at grade. Filter cartridges do not need to be removed to replace media. Top of up flow filter cages is hinged. Cage can be opened by hand by retracting slide locks and pulling up doors to gain access to the media.
Trash Capture Approved Device
No No No Yes Yes Yes
Campus Services ComplexStructural and Materials Engineering Building
SME and CSCPage 1 of 1
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP Bio-filtration Basin Bio-filtration Swale Bio -Infiltration Basin Filterra Unit Filterra Unit Filterra Unit Filterra Unit
Manufacturer/Model N/A N/A N/A CONTECH - Filterra Unit CONTECH - Filterra Unit CONTECH - Filterra Unit CONTECH - Filterra Unit
LocationParking Structure 9450 on the North West Side of the Parking Structure
Parking Structure 9450 on the North West Side of the Parking Structure
East Campus Office Building, West of ECOB building
East Campus Office Building East Campus Office Building East Campus Office Building East Campus Office Building
BMP / LID # E01 E02 E03 E04 E38 E39 E41
BMP or LID BMP BMP BMP BMP BMP BMP BMP
Building # 9450 9444
Map # 1 1 4 4 4 4 4
Year Installed 2011 2011 2011 2012 2012 2012 2012
Picture * photo coming soon
Area Treated 4.97 Acres 4.97 Acres 0.32 Acres 0.34 Acres 0.42 Acres 0.13 Acres 0.59 Acres
Treated Storm 2 Year Storm 2 Year Storm 85th Percentile 0.2 in/hr 0.2 in/hr 0.2 in/hr 0.2in/hr
Proposed Flow or Volume
11,739 Cubic Ft 11,739 Cubic Ft 494 CF N/A N/A N/A N/A
Pollutants TreatedSediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Design Details
Large series of connected rock swales and basins channel all water from parking structure and soccer field and infiltrates water into soil on site.
Uses natural filtering ability of the soil and plants to remove pollutants in storm water runoff by infiltration.
Detains water for a maximum of 72 hours after storm for mosquito prevention.
In case of 100-year storm, there is a drain that is elevated to prevent water from over flowing.
*property leased to external organization
Large series of connected rock swales and basins channel all water from parking structure and soccer field and infiltrates water into soil on site.
Uses natural filtering ability of the soil and plants to remove pollutants in storm water runoff by infiltration.
Detains water for a maximum of 72 hours after storm for mosquito prevention.
In case of 100-year storm, there is a drain that is elevated to prevent water from over flowing.
*property leased to external organization
Area across from parking lot p610 is filled with rocks, gravel and vegetation to help slow peak velocity of storm water.
Allows for sedimentation through infiltration.
Reduces impermeable surface area or region, keeps runoff from building on site.
Filterra Bioretention Systems are design to remove pollutants and total suspended solids.
Runoff is directed into throat opening, which is then treated by passing through specialized filter media and vegetation roots before it is discharged through small under drain
Requires little space and is very effective.
*property leased to external organization
Filterra Bioretention Systems are design to remove pollutants and total suspended solids.
Runoff is directed into throat opening, which is then treated by passing through specialized filter media and vegetation roots before it is discharged through small under drain
Requires little space and is very effective.
*property leased to external organization
Filterra Bioretention Systems are design to remove pollutants and total suspended solids.
Runoff is directed into throat opening, which is then treated by passing through specialized filter media and vegetation roots before it is discharged through small under drain
Requires little space and is very effective.
*property leased to external organization
Filterra Bioretention Systems are design to remove pollutants and total suspended solids.
Runoff is directed into throat opening, which is then treated by passing through specialized filter media and vegetation roots before it is discharged through small under drain
Requires little space and is very effective.
*property leased to external organization
Trash Capture Approved Device Yes Yes Yes Yes Yes Yes Yes
East Campus
East CampusPage 1 of 5
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Filterra Unit Filterra Unit Vegetated Detention Basin Bio-filtration BasinDownspout Disconnection into Vegetated Swale
Hydrodynamic Separator Vegetated Swale
CONTECH - Filterra Unit CONTECH - Filterra Unit N/A N/A N/A Imbrium - Stormceptor STC N/A
East Campus Office Building East Campus Office Building East Campus Office Building East Campus Office BuildingEast Campus Office Building (Downspouts Exist Around the Entire Building)
East Campus- Medical Center Drive North
East Campus Office Building/ Parking Lot
E42 E49 E50 E23 E51 E06 E52
BMP BMP BMP BMP LID BMP LID
9444 9444 9445 P752 9444/ P759
4 4 4 4 4 4 4
2012 2012 2012 2012 2011 2012 2012
* photo coming soon
0.59 Acres 0.40 Acres 1.01 Acres 0.69 Acres, 0.25 Acres Roof of building Parking lot, 1.23 AC
0.2in/hr 0.2 in/hr 85th Percentile10 Year Storm, 85th Percentile
4% of tributary area
N/A N/A 3,769 Cubic Ft 3,769 Cubic Ft
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Sediment, Dry Weather FlowsReduces runoff from site, reducing pollutant loadings
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Filterra Bioretention Systems are design to remove pollutants and total suspended solids.
Runoff is directed into throat opening, which is then treated by passing through specialized filter media and vegetation roots before it is discharged through small under drain
Requires little space and is very effective.
*property leased to external organization
Filterra Bioretention Systems are design to remove pollutants and total suspended solids.
Runoff is directed into throat opening, which is then treated by passing through specialized filter media and vegetation roots before it is discharged through small under drain
Requires little space and is very effective.
*property leased to external organization
Water is diverted from street into filterra units, then under drains lead to this cobble detention basin.
Uses natural filtering ability of the soil and plants to remove pollutants in storm water runoff.
Basin is sized to infiltrate water volume within 72 hours.
In case of a storm of very high volume, there is a drain that is elevated to prevent water from over flowing.
*property leased to external organization
Runoff entering the system is stored in a series of connected pipes.
Removes sediments and attached pollutants by settling the water.
Reduces runoff volumes, delaying runoff peaks by providing detention storage.
*property leased to external organization
Storm water from the roof of the East Campus Office Building drains into a Vegetated Swale, where rocks and plants help infiltrate water into the soil, slow peak velocity, and reduce runoff volume from site.
Reduces quantity of storm water runoff during peak flows.
*property leased to external organization
Stormceptor storm water treatment systems slow incoming storm water to create a non-turbulent treatment environment, allowing free oils and debris to rise and sediment to settle.
Each Stormceptor system maintains continuous positive treatment of total suspended solids (TSS), regardless of flow rate, treating a wide range of particle sizes, as well as free oils, heavy metals and nutrients that attach to fine sediment.
*property leased to external organization
Uses natural filtering ability of the soil to remove pollutants in storm water runoff.
Basin is sized so water volume can be infiltrated within 48 hours.
*property leased to external organization
Yes Yes Yes Yes No Yes No
East Campus
East CampusPage 2 of 5
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Bio-filtration Swale Bio-filtration Swale Dry Well Dry Well Storm Water Detention Vault Storm Water Detention Vault Detention Basin
N/A N/ATorrent Resources - MaxWell Type IV
Torrent Resources - MaxWell Type IV
Rainspace Underground Detention Structure
Rainspace Underground Detention Structure
N/A
ACTRI ACTRIEast Campus Parking Structure 2 (ECPS 2) AKA Athena Parking Structure
East Campus Parking Structure 2 (ECPS 2) AKA Athena Parking Structure
East Campus Parking Structure 2 (AKA) Athena Parking Structure
East Campus Parking Structure 2 (AKA) Athena Parking Structure
East Campus- Science Research Park
E37 E60 E20 E22 E29 E30 E08
BMP BMP BMP BMP BMP BMP BMP
9444 9444 Outside of P783
1 1 2,3 3,6 3,6 3 6
2015 2015 2014 2014 2014 2014 2005
1.91 Acres 0.52 Acres 0.91 AC 1.59 AC 1.59 AC 0.91 AC Runoff from SRP
5-YR 10-YR 85th Percentile 85th Percentile 85th Percentile 85th Percentile
0.32 CFS 0.05 CFS 0.15 CFS 0.25 CFS 0.25 CFS 0.15 CFS
Sediments, Nutrients, Metals, O Sediments, Nutrients, Metals, O Trash, Debris, Oil, and Grease Trash, Debris, Oil, and GreaseTrash, Debris, Oil, and Grease Trash, Debris, Oil, and Grease
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Bioretention swales will be installed along the easterly and center of the buildingwhere roof drains will drain into and outfall to the north of the project site ontoexisting natural vegetation. Bioretention swales functions as a soil and plant-basedfiltration device that removes pollutants through a variety of physical, biological,and chemical treatment processes. These facilities normally consist of a grassbuffer strip, sand bed, ponding area, organic layer or mulch layer, planting soil,and plants. The runoff’s velocity is reduced by passing over or through a sand bedand is subsequently distributed evenly along a ponding area.
Bioretention swales will be installed along the easterly and center of the buildingwhere roof drains will drain into and outfall to the north of the project site ontoexisting natural vegetation. Bioretention swales functions as a soil and plant-basedfiltration device that removes pollutants through a variety of physical, biological,and chemical treatment processes. These facilities normally consist of a grassbuffer strip, sand bed, ponding area, organic layer or mulch layer, planting soil,and plants. The runoff’s velocity is reduced by passing over or through a sand bedand is subsequently distributed evenly along a ponding area.
Each detention basin is connected to a dry well downstream via a storm drain pipe such that the outflow from detention basin is discharged into it. The dry well will treat and allow storm water to infiltrate through the subsoil. Dry wells are also provided with the bypass system to bypass the peak flow rate generated from the larger storm events. Since the site is designed to maintain the peak flow rates and durations in the proposed condition no negative drainage impacts are anticipated due to the redevelopment. Project also utilizes self-treating and retaining BMPs to mitigate the drainage impacts due to redevelopment.
Each detention basin is connected to a dry well downstream via a storm drain pipe such that the outflow from detention basin is discharged into it. The dry well will treat and allow storm water to infiltrate through the subsoil. Dry wells are also provided with the bypass system to bypass the peak flow rate generated from the larger storm events. Since the site is designed to maintain the peak flow rates and durations in the proposed condition no negative drainage impacts are anticipated due to the redevelopment. Project also utilizes self-treating and retaining BMPs to mitigate the drainage impacts due to redevelopment.
Each detention basin is connected to a dry well downstream via a storm drain pipe such that the outflow from detention basin is discharged into it. The dry well will treat and allow storm water to infiltrate through the subsoil. Dry wells are also provided with the bypass system to bypass the peak flow rate generated from the larger storm events. Since the site is designed to maintain the peak flow rates and durations in the proposed condition no negative drainage impacts are anticipated due to the redevelopment. Project also utilizes self-treating and retaining BMPs to mitigate the drainage impacts due to redevelopment.
Each detention basin is connected to a dry well downstream via a storm drain pipe such that the outflow from detention basin is discharged into it. The dry well will treat and allow storm water to infiltrate through the subsoil. Dry wells are also provided with the bypass system to bypass the peak flow rate generated from the larger storm events. Since the site is designed to maintain the peak flow rates and durations in the proposed condition no negative drainage impacts are anticipated due to the redevelopment. Project also utilizes self-treating and retaining BMPs to mitigate the drainage impacts due to redevelopment.
Transformed a natural canyon into a large detention basin.
Detention Basin is design to store and hold large quantities of storm water, utilizing the natural filtering ability of the soil to remove pollutants.
This large basin is design to infiltrate water volume within 72 hours.
Elevated storm drain in the case of the very high flows so the BMP does not fail.
*property leased to external organization
Yes Yes Yes Yes Yes Yes Yes
East Campus
East CampusPage 3 of 5
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Bio-Filtration Basin Bio-Filtration Basin Bio-Filtration Basin Bio-Filtration Basin
N/A N/A N/A N/A
East Campus- Center for Novel Therapeutics East Campus- Center for Novel Therapeutics East Campus- Center for Novel Therapeutics East Campus- Center for Novel Therapeutics
E78 E79 E80 E81
BMP BMP BMP BMP
9608 9608 9608 9608
6 6 6 6
2019 2019 2019 2019
* photo coming soon * photo coming soon * photo coming soon * photo coming soon
1.34 AC 1.74 AC 1.08 AC 1.08 AC
85th Percentile 85th Percentile 85th Percentile 85th Percentile
1,652 CF 2,082 CF 935 CF 935 CF
Sediments, heavy metals, trash and debris, and oil and grease
Sediments, heavy metals, trash and debris, and oil and grease
Sediments, heavy metals, trash and debris, and oil and grease
Sediments, heavy metals, trash and debris, and oil and grease
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Yes Yes Yes Yes
East Campus
East CampusPage 4 of 5
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Detention Basin Detention Basin Detention Basin Detention Basin
N/A N/A N/A N/A
East Campus- Center for Novel Therapeutics East Campus- Center for Novel Therapeutics East Campus- Center for Novel Therapeutics East Campus- Center for Novel Therapeutics
E82 E83 E84 E85
BMP BMP BMP BMP
9608 9608 9608 9608
6 6 6 6
2019 2019 2019 2019
* photo coming soon * photo coming soon * photo coming soon * photo coming soon
0.65 AC 0.65 AC 0.83 AC 0.83 AC
85th Percentile 85th Percentile 85th Percentile 85th Percentile
550 CF 550 CF 715 CF 715 CF
Sediments, heavy metals, trash and debris, and oil and grease
Sediments, heavy metals, trash and debris, and oil and grease
Sediments, heavy metals, trash and debris, and oil and grease
Sediments, heavy metals, trash and debris, and oil and grease
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Detention Basin sized with a surface area of at least 3% the effective impervious tributary area.
Basin provides a minimum of 6 in of ponding on the surface and 18in media atop 18 in sub-base
Maximum surface loading rate of 5 inches per hour
Minimum planting medium depth of 18 inches. The planting medium must sustain a minimum infiltration rate of 5 inches per hour throughout the life of the project and must maximize runoff retention and pollutant removal. A mixture of sand (60%-70%) meeting the specifications of American Society for Testing and Materials (ASTM) C33 and compost (30%-40%) may be used.Subsurface drainage/storage (gravel) layer with an area equal to the surface area and having a minimum depth of 12 inches.Underdrain with discharge elevation at top of gravel layer.No compaction of soils beneath the facility, or ripping/loosening of soils if compacted.No liners or other barriers interfering with infiltration.Appropriate plant palette for the specified soil mix and maximum available water use.
Yes Yes Yes Yes
East Campus
East CampusPage 5 of 5
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP Vegetated SwaleDownspout Disconnection into Vegetated Swale
Rock Swale Bio-filtration Basin Drywell Drywell Drywell
Manufacturer/Model N/A N/A N/A N/ATorrent Resources - MaxWell Type IV
Torrent Resources - MaxWell Type IV
Torrent Resources - MaxWell Type IV
Location East Campus- One MiramarEast Campus Throughout Graduate Housing- One Miramar
Early Childhood Education Center Early Childhood Education Center Mesa Nueva Mesa Nueva Mesa Nueva
BMP / LID # E11 E09 E07 E10 E56 E57 E58
BMP or LID LID LID LID BMP BMP BMP BMP
Building # 3635 3635 3807 3807 3807
Map # 8 8 9 9 9 9 9
Year Installed 2006 2006 2015 2015 2016 2016 2016
Picture *photo coming soon *photo coming soon *photo coming soon *photo coming soon *photo coming soon
Area Treated N/A N/A N/A N/A 2.67 AC 2.2 AC 2.23 AC
Treated Storm N/A N/A N/A N/A 0.5 CFS 0.5 CFS 0.5 CFS
Proposed Flow or Volume N/A N/A N/A N/A 0.48 CFS 0.33 CFS 0.4 CFS
Pollutants TreatedSediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Reduces runoff from site, reducing pollutant loadings. Metals, bacteria, sediment.
Sediment, Metals, Trash, Oil/ Grease, Dry Weather Flows
Trash/liter, sediment, oil, grease & pesticides
Trash/Litter, Sediment, Dry Weather Flows
Trash/Litter, Sediment, Dry Weather Flows
Trash/Litter, Sediment, Dry Weather Flows
Design Details
Uses natural filtering ability of the soil to remove pollutants in storm water runoff.
Vegetation helps reduce peak storm water velocities.
Basin is sized so water volume can be infiltrated within 48 hours.
Storm water from the roof of all of the East Campus Graduate Housing Buildings drains into a Vegetated Swale, where rocks and plants infiltrate water into the soil, slow peak velocity, and reduce runoff volume from site.
Combines rocky trails and dry vegetation to create a treatment train to settle and reduce storm water velocity by infiltration.
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Maintain existing drainage patterns and connect to existing 24 in storm drain line that runs west. Dry well system used to pre-treat infiltration drainage to comply with MS4 water quality treatments.
Maintain existing drainage patterns and connect to existing 24 in storm drain line that runs west. Dry well system used to pre-treat infiltration drainage to comply with MS4 water quality treatments.
Maintain existing drainage patterns and connect to existing 24 in storm drain line that runs west. Dry well system used to pre-treat infiltration drainage to comply with MS4 water quality treatments.
Trash Capture Approved Device No No No Yes Yes Yes Yes
Mesa Housing
Mesa HousingPage 1 of 4
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Drywell Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin
Torrent Resources - MaxWell Type IV
N/A N/A N/A N/A N/A N/A
Mesa Nueva Nuevo West Nuevo West Nuevo West Nuevo West Nuevo West Nuevo West
E59 E62 E63 E64 E65 E66 E67
BMP BMP BMP BMP BMP BMP BMP
N/A N/A N/A N/A N/A N/A N/A
6 6 5 8 8 8 8
2016 2019 2019 2019 2019 2019 2019
*photo coming soon *photo coming soon *photo coming soon *photo coming soon *photo coming soon *photo coming soon *photo coming soon
2.08 AC 2.58 AC 3.88 AC 0.79 AC 0.34 AC 0.89 AC 0.65 AC
0.5 CFS 80% Capture Method 80% Capture Method 80% Capture Method 80% Capture Method 80% Capture Method 80% Capture Method
0.33 CFS 2980 CF 1575 CF 980 CF 512 CF 1250 CF 900 CF
Trash/Litter, Sediment, Dry Weather Flows
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Maintain existing drainage patterns and connect to existing 24 in storm drain line that runs west. Dry well system used to pre-treat infiltration drainage to comply with MS4 water quality treatments.
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Yes Yes Yes Yes Yes Yes Yes
Mesa Housing
Mesa HousingPage 2 of 4
University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin Vegetated Detention Basin
N/A N/A N/A N/A N/A N/A N/A
Nuevo West Nuevo West Nuevo West Nuevo West ECEC Parking Lot Expansion Nuevo East Nuevo East
E68 E69 E70 E71 E72 E73 E74
BMP BMP BMP BMP BMP BMP BMP
N/A N/A N/A N/A N/A N/A N/A
8 8 8 8 9 10 10
2019 2019 2019 2019 2017 2019 2019
*photo coming soon *photo coming soon *photo coming soon *photo coming soon *photo coming soon *photo coming soon *photo coming soon
0.33 AC 0.51 AC 0.79 AC 0.71 AC 0.38 AC 2.61 AC 3.69 AC
80% Capture Method 80% Capture Method 80% Capture Method 80% Capture Method 80% Capture Method 85th Percentile 24-hour 85th Percentile 24-hour
335 CF 607 CF 920 CF 532 CF 0.35 CFS 855 CF 767.5 CF
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Trash/liter, sediment, oil, grease & pesticides
Sediment, trash & debris, chemicals, pet wastes, runoff from stored materials, illicit discharges.
Sediment, trash & debris, chemicals, pet wastes, runoff from stored materials, illicit discharges.
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer.Planting on basin is a mix of native species .
Basin is lined with impermeable HDPE or PVC membrane.
Bottom of the basin drains toward sub-drain pipe and has a max slope of 2%
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer. A perforated underdrain is located at the top of the gravel storage component to prevent overflow of the system.
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer. A perforated underdrain is located at the top of the gravel storage component to prevent overflow of the system.
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer. A perforated underdrain is located at the top of the gravel storage component to prevent overflow of the system.
Yes Yes Yes Yes Yes Yes Yes
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University of California, San Diego Campus Treatment Control BMP Inventory Updated October 2019
Sub-Basin
BMP
Manufacturer/Model
Location
BMP / LID #
BMP or LID
Building #
Map #
Year Installed
Picture
Area Treated
Treated Storm
Proposed Flow or Volume
Pollutants Treated
Design Details
Trash Capture Approved Device
Bio-filtration Basin Bio-filtration Basin Bio-filtration Basin
N/A N/A N/A
Nuevo East Nuevo West Miramar Street Widening
E75 E76 E77
BMP BMP BMP
N/A N/A N/A
10 10 7
2019 2019 2018
*photo coming soon *photo coming soon *photo coming soon
0.26 AC 1.96 AC Approx.. 3.88 Acres
85th Percentile 24-hour 85th Percentile 24-hour 80% Capture Method
137.5 CF 1105 CF 10,426 CF
Sediment, trash & debris, chemicals, pet wastes, runoff from stored materials, illicit discharges.
Sediment, trash & debris, chemicals, pet wastes, runoff from stored materials, illicit discharges.
Other: Nutrients
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer. A perforated underdrain is located at the top of the gravel storage component to prevent overflow of the system.
Bio-retention basin is comprised of a 18" soil layer & a 12" storage layer. A perforated underdrain is located at the top of the gravel storage component to prevent overflow of the system.
48" Overflow Riser2:1 Vegetated Side Slope6" PVC Underdrain18" Freeboard30" Max. Surface Ponding3" Non-Floating Mulch18" Engineered Soil Media - Mixture of Sand(60-70%) and Compost(30-40%) and meet ASTMC33 Standardsor Equivalent per LID manual for Southern California or County of San Diego LID Handbook. 18" Min. GravelInfiltration Sump37 new trees and tree preservation to the extent practical.
Yes Yes Yes
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