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Case Studies: Odum School of Ecology + Chatham University Eden Hall Campus Master Plan
1. Odum School of Ecology
A Case Study
The Odum School of Ecology, founded upon Eugene Odum’s
approach for ecosystem ecology, is building a new home that
functions as a living laboratory and fosters regenerative
symbiotic relationships between humans and natural systems.
.
2. Project Vision
―Our understanding of emerging global economic and environmental issues leads us to
forge a sustainable building ethic for the world’s first college-level ecology program—
the Odum School of Ecology. Our goal is a building that is ecologically
resilient, socially just and economically sound.‖
3. Collaboration
Laboratory
NORTH OCONEE RIVER
ODUM
Office/Education
Building Habitat
4. Odum School of Ecology – University of Georgia at Athens – Athens, Georgia
5.
6. PEDAGOGY CURRENT FUTURE
To create change, the building and site will serve as a LEARNING
multidisciplinary and interdisciplinary transparent living
laboratory available to everyone. CURRENT FUTURE
RESEARCH DOLLARS
7. 2
8 5
2
5
6
5
9 11
1
2 6
6 7 7
9
3
4
10
10
9 10 10 10
1. Balconies 7. Sun shades and light shelves
2. Green roofs 8. Rooftop greenhouse
3. Courtyard stream 9. facades” Sustainable habitats, wetlands, grasslands and stream
4. Eco-machine 10. Lawn and ground cover test areas, organic and container farming test
5. Rooftop photovoltaic panels areas and demonstration gardens
6. Green walls 11. “Breathing
8. Potential research area
Outdoor classroom
HARDMAN Environmental classroom
A ECOL 1000 ECOL 3000
Plant and Animal Abundance
(courtyard and garden)
H
B ECOL 3700
ODUM Agroforesty in Historic Garden
A C ECOL 3700 ECOL 4271
Agrofestry in Historic Garden
I
D ECOL 3520
D Environmental Toxicology &
Restoration (courtyard & garden)
E ECOL 4010
ODUM Earth Sheltered Architecture
E F ECOL 8220
Stream Ecology
FORESTRY
G ECOL 3500 ECOL 8650
Lawn and Ground-cover Study Area
B with Nutrient Cycling
H ECOL 4100 ECOL 8660
Soil Biology Study for Ground Covers
I ECOL 4020 ECOL 4310
LIFE SCIENCES On-Campus Watershed Comparisons -
F Piped and Daylit
The existing site area, west to DW
G Brooks and south to Green St, will be
transformed into a series of natural
working systems that support
C Ecology, Forestry and other UGA
curricula. New outdoor educational
settings – Sustainable
habitats, wetlands, grasslands, and
streams – will demonstrate the
power of landscape to restore plant
and animal diversity, stream
ecologies, watersheds and soils.
11. BIODIVERSITY
Embracing ecological diversity, complexity and resilience, the
project will allow natural systems to self organize, heal and
regenerate ecological processes. This, in turn, will provide CURRENT FUTURE
food, fiber and shelter for living species including humans. SPECIES
12. Building Section
8
7 9
12 13
11 14
10
6
6
1 2 3 4 5
1. Mechanical, Storage, Overflow 9. Green Wall, Green Roof
2. Laboratories 10. Green House
3. Circulation, Garden Commons 11. Living Wall
4. Courtyard (Stream, Trees, Living Laboratories) 12. Balconies
5. Offices, Administration, Café 13. Photovoltaics
6. Auditorium, Exhibit Space, Entry, Eco-Machine 14. Access between levels and green roof
7. Green Roof 15. Double skin facade
8. Mechanical Room
13. Piedmont forest
Riparian corridor
HARDMAN Native meadow
Permaculture
Arboretum
ODUM
Environmental classroom
ODUM
FORESTRY
LIFE SCIENCES
An overview of the
biodiversity zones going west to
DW Brooks and south to Green
St. The sensitivity and diversity
of developing the site this
way offers a more appropriate
headwaters condition, increases
habitat potential, offers
curriculum opportunities and
provides readily accessible
public demonstration areas.
15. LIVIBILITY
By encouraging interaction and collaboration amount the
university, all sectors of the environmental community, and the
general public, and by incorporating the healthiest building
CURRENT FUTURE
practices, this project will create inspiring and healthy indoor
and outdoor spaces where people ling to work, study and visit. ATTRACTION/RETENTION
16. Small auditorium Open air amphitheater classroom
Large auditorium Amphitheater classroom enclosed for cold weather
TEACHING SPACES
17. Cultural Amenities
Primary Circulation
Environmental Classroom
HARDMAN
1 Mary Kahrs Warnell Garden
2 Environmental Café
3 Auditorium
ODUM 4 Courtyard
4
1
2
ODUM
3
FORESTRY
LIFE SCIENCES
The site of the Odum School
of Ecology is at the intersection
of two main pedestrian
thoroughfares of the University
of Georgia Campus. Our vision
for this gateway connection is to
increase the outreach of our and
our neighboring schools’ work via
the experience of just walking by.
Cultural amenities unique to the
function of the School of Ecology
are readily accessible within the
interior courtyard
18. ENERGY
The building will operate on a carbon neutral basis that
demonstrates appropriate demand and supply technologies
CURRENT FUTURE
at various scales.
CARBON FOOTPRINT
19. Natural Daylight
A
1
5
4
3 6
3
B 7
2
1. 100% of south windows sheltered from summer sun 6. Light louvers to maximize internal daylighting
2. Deciduous trees for summer sun protection 7. Clerestory lights deeper internal spaces
3. Building profiles allow daylighting into courtyard and lower
levels of lab wing A. ECOL 3100
4. East and west elevations to have limited amount of glass Greenhouse for Tropical Habitats
with green wall protection B. ECOL 4700
5. Photovoltaic panels to produce 100% of power Soil Lab Wall
20. Natural Ventilation
1
4
2
3
B
A
1. Corridors ventilated by natural convection A. ECOL 3520
2. Exhaust through operable skylights Environmental Toxicology and Restoration
3. Fresh air vegetated courtyard (naturally tempered B. ECOL 4100 ECOL 8660
and cleaned) Soil Biology Study for Ground Covers
4. Double skin facade acts as convection chimney
providing stack effect
21. Mechanical Ventilation
1
7
2
8
3 7
10
11
A
4 9 9
12
5
6
1. Exhaust from labs through heat exchanger 8. Low flow fume hood exhaust system in labs
2. Variable frequency air handler served by chiller or boiler 9. Underfloor air supply
3. Overhead distribution to labs 10. Return air used for lab make up air
4. Chiller 11. Underfloor air distribution system in offices
5. Pre-chilled water from existing water tank 12. Interior plants provide natural cooling effect
6. Ground coupling system
7. Fresh air intake passes by green roof through green wall A. ECOL 4010
and through heat exchanger Earth Sheltered Architecture
23. WATER
Occupying a headwater to the Oconee River watershed, the
project will celebrate water by conserving and regenerating
freshwater cycles, directly linking the building site to the river. CURRENT FUTURE
QUALITY + QUANTITY
24. RIPARIAN CORRIDOR
RAINWATER COLLECTION
AREA
DRAINAGE ARE DIVIDE
1 HEADWATER OF TWO STREAMS
2
2 RESTORE/DALIGHT HISTORIC STREAM
3 POTENTIAL RIPARIAN CORRIDOR
A A ECOL 4020 ECOL 4310
On-campus Watershed Comparisons
1 Piped and Daylit Historic Stream
B ECOL 8220
Stream Ecology
3 The project site area
straddles a ridge that divides
two drainage areas which
are both part of the Oconee
watershed. Current site design
rapidly puts all storm water
B into pipes sending it away.
Environmentally regenerative
and restorative techniques at
the new site development will
create attractive, usable and
educational habitat zones along
the exposed waterways.
25. Water Systems
1
3 2
4 10
9 B
6 11
5 A
8
12
7
1. Green roofs drain to water tank. overflow to stream/irrigation 1. Waste water from lavatories, sinks and toilets to Eco-machine
2. De-ionized water to labs 2. Water from Eco-machine service to toilets
3. Green roof 3. Clarifying tank/stream
4. De-ionizer 4. Eco. machine tanks
5. City water 5. Settling tank
6. Overflow from chiller to stream/irrigation
7. Water tank (recycled fuel tank) filled from roof drainage and A. ECOL 8220 - Stream Ecology
condensation from chiller B. ECOL 8150 - Wetland Ecology
27. NUTRIENT CYCLING
Mimicking nature, the building will operate waste-free by
integrating natural systems and adopting and inventing
CURRENT FUTURE
sustainable operating practices that harvest nutrients.
NUTRIENT CYCLING
33. Odum School of Ecology
University of Georgia
Long Term Ownership Cost Model
Odum School of Ecology B N I M
34. Odum Comparisons- 5% Cost of Capital (50 year range)
Includes: Construction Costs, Operating costs, Maintenance Costs, Replacement Costs for Mechanical and Roofing
Assumption: Odum maintenance Costs 1.5 times the cost of Coverdell maintenance
Note: Lamar Dodd School of Art is a different building type and typically uses less energy and costs less than a Lab Building
Odum Lab Building ( 140,000 s.f.)
Coverdall Building (146,769)
$250,000,000
Lamar Dodd School of Art (167,000)
Coverdell $201,667,928
$200,000,000
Lamar Dodd School
of Art $135,284,226
$150,000,000
Coverdell $105,751,884
Odum $90,893,967
$100,000,000
Odum $99,299,105
Lamar Dodd School of Art $81,163,040
$50,000,000
$-
0 5 10 15 20 25 30 35 40 45 50 Years
Odum School of Ecology B N I M
35. Odum Comparisons- 5% Cost of Capital (50 year range)
Includes: Construction Costs, Operating costs, Maintenance Costs, Replacement Costs for Mechanical and Roofing
Assumption: Odum maintenance Costs 1.5 times the cost of Coverdell maintenance
Note: Lamar Dodd School of Art is a different building type and typically uses less energy and costs less than a Lab Building
50 year Breakout of Costs - 5% Cost of Capital NPV
$250,000,000
Water Costs
Energy Costs
$200,000,000 Maintenance Costs
Design Fees
Replacement Costs
Life Cycle Cost
$150,000,000
Capital Costs
Assume:
-5% inflation for gas
$100,000,000 and electric rates
-1.5% inflation for
everything else
$50,000,000 -5% cost of capital
-30year analysis
- 20 year
replacement of
$-
major mech and
Lamar Dodd School of Art Coverdall Building (146,769) Odum Lab Building ( 140,000 s.f.) roof.
(167,000)
Odum School of Ecology B N I M
36. Odum Comparisons- 5% Cost of Capital (30 year range)
Includes: Construction Costs, Operating costs, Maintenance Costs, Replacement Costs for Mechanical and Roofing
Assumption: Odum maintenance Costs 1.5 times the cost of Coverdell maintenance
Note: Lamar Dodd School of Art is a different building type and typically uses less energy and costs less than a Lab Building
$250,000,000
Water Costs
Energy Costs
Maintenance Costs
$200,000,000
Design Fees
Replacement Costs
Capital Costs
Life Cycle Cost
$150,000,000
Assume:
-5% inflation for gas
and electric rates
$100,000,000 -1.5% inflation for
everything else
-5% cost of capital
-30year analysis
$50,000,000
- 20 year
$-
Lamar Dodd School of Art Coverdall Building (146,769) Odum Lab Building ( 140,000
(167,000) s.f.)
Odum School of Ecology B N I M
37. Odum Comparisons- Putting a cost on Carbon
Cost of Carbon Offsets -5% Cost of Capital NPV
Costs: $10 a ton – 5% increase per year
Note: Princeton University uses $40 / ton as a baseline (based on Europe’s carbon trading rate)
$16,000,000.00
Lamar Dodd School of Art
Coverdell Building
Coverdell $12,845,762
$14,000,000.00
$12,000,000.00
$10,000,000.00
$8,000,000.00
Lamar Dodd School of Art
$6,000,000.00 $7,328,364
Coverdell $4,076,741
$4,000,000.00
$2,000,000.00
Lamar Dodd School of Art $2,325,735
$0.00
0 10 20 30 40 50
Odum School of Ecology B N I M
38. Odum Comparisons - With Carbon Offsets - 5% Cost of Capital NPV
Includes: Construction Costs, Operating costs, Maintenance Costs, Replacement Costs for Mechanical and Roofing. Carbon Offsets
are included for Coverdell and Lamar Dodd School of Art at a costs of $10 per ton, 5% increase per year.
Note: Princeton University uses $40 / ton as a baseline (based on Europe’s carbon trading rate)
Odum Lab Building ( 140,000 s.f.)
Coverdall Building (146,769)
$250,000,000 Lamar Dodd School of Art (167,000)
Coverdell $214,513,690
$200,000,000
Lamar Dodd School
of Art $142,612,590
$150,000,000
Net Present Value
Coverdell $109,828,625
Odum $99,299,105
Odum $90,893,967
$100,000,000
Lamar Dodd School of Art $83,488,776
$50,000,000
$-
0 5 10 15 20 25 30 35 40 45 50 Years
Odum School of Ecology B N I M
39. Odum Comparisons
With Carbon Offsets - 5% Cost of Capital NPV (50 Year Range)
Includes: Construction Costs, Operating costs, Maintenance Costs, Replacement Costs for Mechanical and Roofing.
Carbon Offsets are included for Coverdell and Lamar Dodd School of Art at a costs of $10 per ton, 5% increase per year.
Note: Princeton University uses $40 / ton as a baseline (based on Europe’s carbon trading rate)
$250,000,000
Carbon
Water Costs
$200,000,000 Energy Costs
Maintenance
Costs
Design Fees
$150,000,000
Life Cycle Cost
Replacement
Costs
Capital Costs
$100,000,000 Assume:
-5% inflation for gas
and electric rates
-1.5% inflation for
$50,000,000 everything else
-5% cost of capital
-50 year analysis
$- - 20 year
Lamar Dodd School of Art Coverdall Building (146,769) Odum Lab Building ( 140,000 s.f.) replacement of
(167,000)
40. Odum Comparisons
With Carbon Offsets - 5% Cost of Capital NPV (30 Year Range)
Includes: Construction Costs, Operating costs, Maintenance Costs, Replacement Costs for Mechanical and Roofing.
Carbon Offsets are included for Coverdell and Lamar Dodd School of Art at a costs of $10 per ton, 5% increase per year.
Note: Princeton University uses $40 / ton as a baseline (based on Europe’s carbon trading rate)
Carbon
$250,000,000 Water Costs
Energy Costs
Maintenance Costs
$200,000,000
Design Fees
Life Cycle Cost
Replacement
Costs
$150,000,000
Capital Costs
Assume:
-5% inflation for gas
$100,000,000 and electric rates,
-1.5% inflation for
everything else
-5% cost of capital
$50,000,000
-30year analysis
- 20 year replacement
of major mech and roof.
$-
Lamar Dodd School of Art Coverdall Building (146,769) Odum Lab Building ( 140,000 s.f.)
(167,000)
41. Costs to Society for Health Care Costs
from Pollutants from Source Production, NO2, SO2 , CO2.- 5% NPV
Harvard School of Medicine study
$18,000,000.00
$16,267,801.74
$16,000,000.00
$15,608,351.15
$14,949,962.71
$14,293,022.15
$14,000,000.00
$13,637,951.12
$12,985,209.80
$12,335,299.74
$12,000,000.00 $11,688,766.79
$11,046,204.34
$10,408,256.65
$10,000,000.00 $9,775,622.48
$9,149,058.96 $9,280,599.37
$8,904,390.17
$8,529,385.61 $8,528,786.91
$8,154,009.65
$8,000,000.00 $7,917,488.75 $7,780,298.94
$7,314,326.09 $7,407,917.30
$7,037,150.86
$6,720,931.70 $6,668,311.03
$6,138,421.18 $6,301,736.32
$6,000,000.00 $5,937,794.28
$5,567,997.30 $5,576,883.55
$5,219,436.05
$5,010,955.88 $4,865,919.32
$4,468,692.12 $4,516,838.98
$4,172,741.42
$4,000,000.00 $3,942,707.28 $3,834,216.54
$3,434,615.78 $3,501,900.79
$3,176,480.33
$2,946,152.82 $2,858,694.42
$2,479,182.37 $2,549,338.99
$2,249,270.51
$2,000,000.00 $2,035,705.72
$1,959,409.98
$1,680,747.31 Lamar Dodd School of Art
$1,617,870.56
$1,414,345.88
$1,227,980.62
$1,161,347.40 Coverdell Building
$922,977.10
$868,505.90
$700,549.24
$542,093.53
$495,472.92
$309,258.31
$251,579.32
$143,523.19
$0.00
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30
Odum School of Ecology B N I M
42. Human Health and Productivity - 5% NPV
Based on the most recent studies, buildings designed with some of the characteristics of the Odum building have shown increases in
human heath and productivity – 3.8% increase. modeled
$60,000,000 Staff Productivity Increase
Total $54,686,436 Faculty Productivity Increase
Undergraduate Productivity Increase
$50,000,000 Graduate Productivity Increase
Total Human Heath and Productivity Costs
$40,000,000
Faculty $34,094,856
$30,000,000
Total $17,355,331
$20,000,000
Graduate / Undergraduate
$7,955,224
$10,000,000
Staff
$4,681,132
$-
0 10 20 30 40 50
Odum School of Ecology B N I M
43. “The future belongs to those who give
the next generation reason to hope.”
Teihard de Chardin
47. Vision
Serving the needs of current and future generations, Chatham University at Eden Hall will serve
as a beacon to those who wish to imagine and model sustainable learning and living. Through
scholarly training and research, Eden Hall Campus will create entrepreneurs and advocates
capable of implementing sustainable ideas and sharing them with a global community. In so
doing, Chatham will proudly advance the legacy of Rachel Carson, class of 1929.
57. Built Environment
Design a flexible Use state-of-the- Repurpose Provide
and inspiring art sustainable existing abundant
learning building facilities campus
environment solutions amenities
Create a pedagogical learning and research environment
The existing site area, west to DW Brooks and south to Green St, will be transformed into a series of natural working systems that support Ecology, Forestry and other UGA curricula. New outdoor educational settings – Sustainable habitats, wetlands, grasslands, and streams – will demonstrate the power of landscape to restore plant and animal diversity, stream ecologies, watersheds and soils.
Section perspective looking east showing concept ideas for creating a new habitat.The enriched experience provides extensive green roofs planted in conjunction with lab curriculum to attract desired species; integrated green walls for shading and habitat; and rainwater capture and reuse to develop wetlands, grasslands and streams.
An overview of the biodiversity zones going west to DW Brooks and south to Green St. The sensitivity and diversity of developing the site this way offers a more appropriate headwaters condition, increases habitat potential, offers curriculum opportunities and provides readily accessible public demonstration areas.
The site of the Odum School of Ecology is at the intersection of two main pedestrian thoroughfares of the University of Georgia Campus. Our vision for this gateway connection is to increase the outreach of our and our neighboring schools’ work via the experience of just walking by. Cultural amenities unique to the function of the School of Ecology are readily accessible within the interior courtyard
The section perspective (looking east) above shows the advantages of providing orientation to solar south.The building is designed to face solar south, providing the best access to both passive and active strategies available daily from sunlight. 100% of all interior spaces will be naturally daylit. Access to daylight has been shown to increase productivity and accuracy of building users. Use of photovoltaics (solar panels) will be the primary energy source for the school. Solar panels will be located on the roof, on grade and integrated into the building façade and shading devices.
The section perspective (looking East) above shows a design concept of how the two main species of the building lab (left) and office (right) act in natural ventilation mode.Every time the building or a portion of the building operates in natural ventilation mode the Odum School’s impact on the environment is reduced. The office wing uses a double skin facade on the south side and accepts fresh air from the summer dominant WNW winds. Lab research spaces receive air from operable windows on the south side and exhaust air through the filtered mechanical system.
The section perspective (looking East) above shows a design concept of how the two main species of the building lab (left) and office (right) act in mechanical ventilation mode.In the Office wing uses an underfloor air system, delivering the air where it is needed most. This system lowers air delivery temperature, reducing the energy required for cooling while providing individual control over the airflow and direction. Lab areas use an efficient overhead supply system with a heat exchange recovery wheel on the return side to capture reusable heat as the conditioned air leaves the exhaust stack.
The project site area straddles a ridge that divides two drainage areas which are both part of the Oconee watershed. Current site design rapidly puts all storm water into pipes sending it away. Environmentally regenerative and restorative techniques at the new site development will create attractive, usable and educational habitat zones along the exposed waterways.
Section perspective looking east showing concept ideas for creating a new habitat.The enriched experience provides extensive green roofs planted in conjunction with lab curriculum to attract desired species; integrated green walls for shading and habitat; and rainwater capture and reuse to develop wetlands, grasslands and streams.
Understanding the climate of the area you inhabit is paramount to success for many things including building design. This climate chart depicts the basics of our natural system which have an affect on how we design, construct, operate and use our built environments.
Established preservation strategies for surface water systems and habitat corridors
Consumption of imported food of imported food coincides with peak academic activityAnnual rainfall distribution favors summer months and growing seasonBUT water demand for human consumption and agricultural activities outstrips both surface and groundwater resources.
Water disposal from constructed wetlands: This graphic shows where to dispose of “waste” water safely according to current health regulations. Accordingly, disposal areas must not allow for human contactThis is NOT the highest and best use of this water as it is largely clean. As we monitor the quality of this effluent here and in other locations within PA, we hope to use this water to irrigate agricultural areas, thereby closing the loop in a way that is effective environmentally, economically, and socially.