Center of Ex-
Conceptual Analysis| Formal | Historical
Executive Architect – Ashley McGraw Design Architect – Toshiko Mori Analysis – Kae Schwalber, Sravya Sirigiri, Raya Albawab, Qianyao Zhao,
According to the nonprofit Syracuse Center of Excellence, their mission is to push the boundaries of building technologies to improve human health and the environment. The buildings program consists of research and work spaces that focuses on clean and renewable energy, indoor environmental quality, and water resources. . Natural ventilation, personal ventilation systems, heat recovery and reuse systems, rain water capture and reuse, vegetative roof, and geothermal ground source heat pumps are among the sustainability strategies employed in the building’s design. For this project, the sustainable design effort relied less on the application of new techniques than on intelligently combin- ing existing processes (many of which are more common in Europe than North America).
ACTIVE DESIGN
CULTURAL DESIGN
ACCESSIBLE
BROWNFIELD
ICON
TEST BED
PASSIVE DESIGN
NATURAL VENTILATION
GREEN ROOF
GREY WATER COLLECTION
DAY LIGHTING
“GREEN” MATERIALS
DISPLACEMENT VENTILATION
HEAT RECOVERY EXHAUST
RADIANT HEAT/COOL
REGENDERATIVE BREAKING ELEVATOR
GEOTHERMAL BOREFIELD
RAISED FLOOR
Conceptual Analysis | Formal | Historical
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m y e l h s A Social impact
Green architecture
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Fumihiko Maki’s work, often explores pioneering uses of new materials and fuses the cultures of east and west through what Charles Jencks calls double coding. Here Maki uses a modernist aesthetic melded with a zen architecture understanding of how to move through space, generally using multiple levels and visual focal points
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Usonian homes are characterized by native materials; flat roofs and large cantilevered overhangs for passive solar heating and natural cooling; natural lighting with clerestory windows; and radiant-floor heating.
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Ashley McGraw’s design firm state that their work is “motivated by the belief that architecture has agency to create net positive change to the environment, community, and local economy. Driven by a culture of rigorous curiosity, their core competency has expanded well beyond traditional disciplinary edges.” As for processes, they have stated that they start every project with an analysis phase, and utilize new technologies to better facilitate designing.
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Le Corbusier envisioned the ramp as becoming a major campus pathway, maximizing time efficiency by creating a stree through a building
Collaboration Center of Excellence
Glass House, Lina Bo Bardi 195 1
Dymaxion house, Buckminster Fuller 1933
Lina Bo Bardi devoted her working life to promoting the social and cultural potential of architecture and design, often by contextualizing her work by incorporate the ideas behind local architecture into the design in a way that was modern.
Toshiko mori Carpenter Center for the Visual Arts, Le Corbusier 1963
Toshiko Mori’s design firm uses and “intelligent approach to ecologically sensitive siting strategies, historical context, and innovative use of materials reflects a creative integration of design and technology.” She and her team are thoughtful and sensitivity to detail, aided by extensive research into the site conditions and surrounding context, focusing on programmatic needs. On her style, she has said, “Digest the complexities and come up with a solution which may be a result of many, many different iterations. So imposing a style just won’t work anymore”
Bauhaus
Dessau, W alter Gro pius 192 6 Bauhaus Dessau, W alter Gro pius 192 6
Carpenter Center for the Visual Arts, Le Corbusier 1963 Carpenter Center for the Visual Arts, Le Corbusier 1963
ACCESSIBLE
BROWNFIELD
ICON a W or
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“GREEN” MATERIALS
DAY LIGHTING
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Glass House, Lina Bo Bardi 1951 GREY WATER sau, Walt er GropiuGREEN ROOF s 1926 COLLECTION kminster Fuller 1933 Glass House, Lina Bo Bardi 1951
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Carpenter Center for the Visual Arts, Le Corbusier 1963
The Center of Excellence is situated in a area afflicted by high poverty, using the building to catalyze local economic development around sustainable technology was important. The overall composure of the building is set to create a community symbol, located on a neglected Brownfield site visible from two busy highways. While this building is highly visible, and does make unhealthy ground usable, the pathways through the project still block pedestrians from passing in multiple directions, including horizontally or from one corner towards existing buildings. It is clear that the designers considered movement through and beyond the site attempting to interact with the community but were not fully successful. Se
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REGENDERATIVE BREAKING RADIANT HEAT/COOL GEOTHERMAL BOREFIELD RAISED FLOOR ELEVATOR Throughout the whole building and site we see a consistent use of non standard angles. The angles are meant to direct people to the entrances on the ground to the second and third floors, as well as create an iconic non standard building. ltu
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Cultural Design |Overview | Structural
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DESIGN STRATEGIES
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The true community success at the Center of Excellence is its design to function as a test bed for environmental and energy technologies and building innovations.
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PNT-2
Diffuser location coordinated in field
PNT-1 PNT-1Linear fluorescent light fixtures
Expansion joint provide cover/wall plates
Raised floor system GALLERY SECTION
The building's halls act as a gallery spaces. Unlike traditional introverted research centers, many of the lab environments are on public display, visually communicating the research taking place within the institution. A section of the interior ramp of the COE is shown in this figure. The section tells the relationship between the suspended ceiling and the corridor. The diffuser is located within the suspended ceiling, and the light fixtures is under the suspended ceiling. The section also shows the big ramp of the second floor.
Cultural Design |Overview | Structural Bauhaus
Dessau, W alter Gro pius 192 6
haus Des sau, Walt er Gropiu s 1926
Carpenter Center for the Visual Arts, Le Corbusier 1963 Carpenter Center for the Visual Arts, Le Corbusier 1963
ACCESSIBLE
BROWNFIELD
ICON
GREY WATER COLLECTION
DAY LIGHTING
TEST BED
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“GREEN” MATERIALS
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GREEN ROOF
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Glass House, Lina Bo Bardi 1951
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The use of slants and angles are further used in the design of the building facade and structure as can be seen in this section specifically in the west facade. The sectional bay shows the structure of the two designed entrance paths. The staircase below the cantilever is also supported by brace framing leading to the second level. The initially intended to be a pedestrian pathway the sloped barn roof leads up to the third level. In the drawings we can see a handrail that was intended for pedestrian pathway although in the actual building images that area was never built as planned and there are no hand rails. There REGENDERATIVE BREAKING are also metal brackets differing visitors from climbing up GEOTHERMAL to the third level. RADIANT HEAT/COOL BOREFIELD RAISED FLOOR ELEVATOR Overall the slants in the building form and angles in the site form do create a more iconic or memorable building in the community however as a whole the design of the social interaction with the building is not successful. The entrances were designed well and structurally innovative however in practicality they are not used as they were intended. The building blocks off pathways through the site as there is no path that leads through one side of the building to the other.
DETAIL A
DETAIL B
DETAIL C 10
16” x 13” x 7/4”
DETAIL A
DETAIL B
DETAIL C
#6 @6 10
DETAIL A
DETAIL B
4 - 3/4” A325
6’ - 6”
2’ - 6”
DETAIL C 1’ - 6”
10
16” x 13” x 7/4”
#9 @12
16” x 13” x 7/4”
COLUMN TRANSFER AT SECOND LEVEL #6 @6 WEST FACADE
SECTION AT SLOPED BEAM AND GROUND
4 - 3/4” A325
6’ - 6”
STRUCTURAL WALL DETAIL SITE PLAN
2’ - 6”
16” x 13” x 7/4”
#9 @12
COLUMN TRANSFER AT SECOND LEVEL WEST FACADE
SECTION AT SLOPED BEAM AND GROUND
16” x 13” x 7/4”
2’ - 6”
KEY IMAGE
STRUCTURAL WALL DETAIL SITE PLAN #9 @12
COLUMN TRANSFER AT SECOND LEVEL WEST FACADE
SECTION AT SLOPED BEAM AND GROUND
6’ - 6”
1’ - 6”
4 - 3/4” A325
1’ - 6”
#6 @6
16” x 13” x 7/4”
STRUCTURAL WALL DETAIL SITE PLAN
DETAIL A
DETAIL B
DETAIL C
DETAIL B
10
DETAIL B
DETAIL A DETAIL C
DETAIL B
STRUCTURAL SECTION
DETAIL A
w12x87 w12x45 w10x68 w12x58 w10x49 w10x88
W18x71
DETAIL C
STRUCTURAL SECTION
DETAIL C
STRUCTURAL SECTION
16” x 13” x 7/4”
DETAIL A
COLUMN w12x87TYPES w12x45
w10x68 w12x58 w10x49 w10x88
#6 @6
W18x71
4 - 3/4” A325
6’ - 6”
2’ - 6”
COLUMN TYPES
w12x87 w12x45 w10x68 w12x58 w10x49 w10x88
W18x71
STRUCTURAL PLAN LEVEL STRUCTURAL PLAN LEVEL 2 2
16” x 13” x 7/4”
COLUMN COLUMN
W24x84 W24x84
W12x16 W12x16
W16X36 W16X36
W24X68 W24X131 L6x4x7/16 W12x35 WT5X15 W24X68 W24X131 L6x4x7/16 W12x35 WT5X15
#9 @12
COLUMN TRANSFER AT SECOND LEVEL WEST FACADE
SECTION AT SLOPED BEAM AND GROUND W18x71 W18x106 W30x99 W18x71 W18x106 W30x99W27x102 W27x102
1’ - 6”
COLUMN TYPES
BEAM TYPES TYPES BEAM
STRUCTURAL WALL DETAIL
BEAM TYPES
SKEWED BEAM TO COLUMN CONNECTION handrail
COLUMN
DETAIL B
BEAM STRUCTURAL PLAN LEVEL 2 BEAM TYPES
SKEWED BEAM TO COLUMN CONNECTION handrail
SECTIONAL BAY
DETAIL A
handrail
SKEWED BEAM TO COLUMN CONNECTION
COLUMN BEAM
COLUMN
W24x84
3/8” MIN STIFF PL TOP AND BOTTOM ALIGN WITH CONNECTION PLATE
BEAM
W16X36 BEAM TYPES
Cultural Design |Overview | Structural DETAIL A
DETAIL B
DETAIL C 10
The designers attempted to multiple access points into the building that catered to the pedestrian although it seems that they are not used regularly. The two designed access points of the stairs from below the canteliver do not seem open regularly as well as the sloped roof to side walk was originally meant to have a pedestrian walk way however that isn’t currently implemented into the building today. Looking at the building loads we can see that the designers expected a live load in both areas on the Sloped Barn roof and Tower services core.
16” x 13” x 7/4” #6 @6
4 - 3/4” A325
16” x 13” x 7/4”
#9 @12
COLUMN TRANSFER AT SECOND LEVEL WEST FACADE
SECTION AT SLOPED BEAM AND GROUND
2’ - 6”
1’ - 6”
6’ - 6”
STRUCTURAL WALL DETAIL SITE PLAN
LOADING DIAGRAMS
S PLAN
AREA LOAD TYPE
TOWER ELEVATOR SERVICE ROOM
TOWER GROUND LOBBY AND CORRIDORS
FLOOR NONSTRUCTURAL
0
15 PSF
37.5 PSF
FACADE
0
0
0
TOWER ASSEMBLY TOWER ASSEMBY AREAS AREA LOBBIES
15 PSF
15 PSF
15 PSF
0
0
0
0
0
0
0
0
0
5 PSF
5 PSF
5 PSF
5 PSF
5 PSF
0
0
0
0
0
0
0
LOADING DIAGRAMS 5 PSF 5 PSF
5 PSF
0
0
0
0
0
DEAD LOAD
0
20 PSF
37.5 PSF
20 PSF
20 PSF
LIVE LOAD
150 PSF
100 PSF
100 PSF
100 PSF
100 PSF
2000 PSF
2000 PSF
2000 PSF 0
MISC LOAD
0
0
0
AREA LOAD TYPE
BARN GROUND LEVEL MECHANICAL
BARN GROUND LEVEL BIOFUELS PLANT
AREA
LOAD TYPE 0 FLOOR
0
FACADE
0
0
0
CEILING AND SERVICES BARN GROUND LVL BARN ENVIORNMENT GROUND LEVEL ADDITIONAL CHAMBER GAMMA ROOM LOADS BARN CORRIDORS
0
0
0
FACADE
0
0
0
CEILING AND SERVICES
0
0
0
ADDITIONAL LOADS
0
0
150 PSF
55 PSF 0 CONCENTRATED LIVE LOAD
DEAD LOAD
0
0
150 PSF
LIVE LOAD
150 PSF
300 PSF
100 PSF
SNOW LOAD
2000 PSF
2000 PSF
2000 PSF
SNOW LOAD
0
0
0
MISC LOAD
0
216 PSF
0
0
5 PSF
0
LIVE LOAD 0
0
0
15 PSF
0
0
0 0
0 PSF
0
0
TOWER GROUND 20 PSF 20 PSF LOBBY 125 PSF 20 PSF ANDPSF CORRIDORS 2000 0 0
37.5
0
0
5 PSF BARN ROOF 0
0
15150 PSF
15
0
0 BARN MECHANICAL ROOMS 0
0 DEAD LOAD
0 20 PSF
0
PSF
0 2000 PSF
0
0
10015PSF PSF
0
50 PSF
50 PSF PSF 2000
0
42.5 PSF
0
0
0
0
216 PSF
BARN GROUND AREA LEVEL FIRST FLOOR LOADS PLAN MECHANICAL
BARN GROUND LEVEL BIOFUELS PLANT
0
0100
PSF
100 PSF
70 PSF
150 PSF
80 PSF
125 PSF
20 PSF
100 PSF
100 PSF
0
0
0
0
0
0
0
42.5 PSF
0
0
0
42.5 PSF
42.5 PSF
0
0
0
0
0
0
0
0
0
BARN GROUND LVL BARN BARN SECOND FLOOR LOADS PLAN ENVIORNMENT GROUND LEVEL FOURTH FLOOR LOADS PLAN MECHANICAL CHAMBER GAMMA ROOM BARN CORRIDORS ROOMS
0
0
0
0
0
0
CEILING AND SERVICES
0
0
0
0
15 PSF
15 PSF
15 PSF
ADDITIONAL LOADS
0
0
150 PSF
55 PSF
0
0
50 PSF
DEAD LOAD
0
0
150 PSF
55 PSF
20 PSF
15 PSF
65 PSF
LIVE LOAD
150 PSF
300 PSF
100 PSF
100 PSF
80 PSF
150 PSF
20 PSF
2000 PSF
2000 PSF
2000 PSF
2000 PSF
2000 PSF
0
FLOOR LOADS THIRD FLOOR LOADS PLAN FIRST FLOOR LOADS PLAN 0 FIFTH 0 PLAN
0
0
LOAD TYPE
0 0
15 PSF kWh/m2 0
CEILING AND SERVICES
0
5 PSF
ADDITIONAL LOADS
0
DEAD LOAD
0
1354.89<0
150 PSF
CONCENTRATED LIVE LOAD SNOW LOAD MISC LOAD
25 PSF
0
0
0
0
15 PSF
AREA
15 PSF
LOAD TYPE
m/s
FACADE
65 PSF
0
CEILING AND SERVICES ADDITIONAL LOADS
15 PSF
15 PSF
0
0
0
5 PSF
5 PSF
0
0
20 PSF
37.5 PSF
20 PSF
20 PSF
100 PSF
100 PSF
100 PSF
100 PSF
0
0
0
0
0
0 14.00
0
0
1083.92
BARN GROUND LEVEL MECHANICAL
BARN GROUND LEVEL BIOFUELS PLANT
948.43
FLOOR NONSTRUCTURAL
0
FACADE
0
CEILING AND SERVICES
0
812.940
ADDITIONAL LOADS
0
0
TOWER GROUND LOBBY AND CORRIDORS
50 PSF
0
15 PSF
37.5 PSF
0
0
0
75 5 PSFPSF
0
0 250 PSF
2 PSF
DEAD LOAD
0
20 PSF
15 PSF
15 PSF
0
0 100 PSF
0
AREAS
0
37.5 PSF
0
TOWER ASSEMBY AREA LOBBIES 15 PSF
0
0
5 PSF
5 PSF
0
0
20 PSF
20 PSF
MISC LOAD
216 PSF
0
LOAD TYPE
BARN GROUND LVL BARN ENVIORNMENT GROUND LEVEL CHAMBER GAMMA ROOM
12.25
0
0
0
BARN GROUND LEVEL BIOFUELS PLANT
BARN GROUND LEVEL MECHANICAL
TOWER FLOOR TOWER TOWER NONSTRUCTURAL GENERALFACADELABORATORIES CORRIDOR
0
BARN GROUND LVL BARN ENVIORNMENT GROUND LEVEL CHAMBER BARN GROUND GAMMA ROOM
0 TOWER 0 STORAGE
0 TOWER ROOF 0 15 PSF 15 PSF 15 PSF 15 PSF 15 PSF CEILING AND SERVICES 0 0 0 0 0 0 0 ADDITIONAL LOADS 0 0 5 PSF 5 PSF 5 PSF 5 PSF 5 PSF DEAD LOAD 0 0 0 0 0 0 0 LIVE LOAD 150 PSF 300 PSF 20 PSF 20 PSF 20 PSF 20 PSF 20 PSF CONCENTRATED LIVE LOAD 2000 PSF 2000 PSF 70 PSF 150 PSF 80 PSF 125 PSF 20 PSF SNOW LOAD 0 0 2000 PSF 2000 PSF 2000 PSF 2000 PSF 0 MISC LOAD 0 216 PSF 0 0 0 0 42.5 PSF
FIFTH FLOOR LOADS PLAN THIRD FLOOR LOADS PLAN
BARN CORRIDORS
0
BARN MECHANICAL ROOMS
0
BARN ROOF
0
0
0
0
0
BARN BIOFUELS BARN LOADING SLOPED BARN ROOF DOCK EARTH RAMP
LEVEL0 LABORATORIES 0 0 0 0 150 PSF 0 150 PSF 0 100 PSF 0 2000 PSF 100 PSF 0 2000 PSF 0 0 0 STANDARD PANEL FACADE
0
BARN CORRIDORS 5 PSF
0
0
0
15 PSF
55 PSF
0
55 PSF
20 PSF
100 PSF
80 PSF
2000 PSF
2000 PSF
0
0
0
0
37.5 PSF
15 PSF
15 PSF
15 PSF
15 PSF
0
0
0
0
0
0
0
CEILING AND SERVICES
0
5 PSF
0
5 PSF
5 PSF
5 PSF
5 PSF
5 PSF
ADDITIONAL LOADS
0
0
0
0
0
0
0
0
0
20 PSF
37.5 PSF
20 PSF
20 PSF
20 PSF
20 PSF
20 PSF
0
ROOF LOADS PLAN MISC LOAD
AREA LOAD TYPE
100 PSF
70 PSF
150 PSF
80 PSF
0
0
2000 PSF
2000 PSF
2000 PSF
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
0
42.5 PSF
0
0
0
BARN GROUND LEVEL MECHANICAL
0 BARN GROUND LEVEL BIOFUELS PLANT
0
0
5 PSF
0
0
0
0
25 PSF
0
0
0
0
0
0
0
0
0
15 PSF
0
15 PSF
15 PSF
15 PSF
15 PSF
0
0
0
CEILING AND SERVICES
0
0
150 PSF
55 PSF
0
0
50 PSF
50 PSF
0
50 PSF
0
ADDITIONAL LOADS
0
0
0
8.75
TOWER ASSEMBLY TOWER ASSEMBY FLOOR NONSTRUCTURAL AREAS AREA LOBBIES FACADE 15 PSF 15 PSF CEILING AND SERVICES 0 0 ADDITIONAL LOADS 5 PSF 5 PSF DEAD LOAD 0 0 LIVE LOAD 20 PSF 20 PSF CONCENTRATED LIVE LOAD 100 PSF 100 PSF SNOW LOAD 0 0 MISC LOAD 0 0 0
BARN GROUND LVL BARN ENVIORNMENT GROUND LEVEL CHAMBER GAMMA ROOM
0
BARN CORRIDORS
TOWER 0 GENERAL 0
15 PSF 0 0 0 5 PSF 0 0 150 PSF 20 PSF 2000 PSF 70 PSF 0 2000 PSF 0 0 0
BARN MECHANICAL ROOMS
BARN GROUND LEVEL BIOFUELS PLANT
BARN GROUND LVL ENVIORNMENT CHAMBER
TOWER0 TOWER TOW 0 LABORATORIES CORRIDOR STOR 0 0 15 PSF 15 PSF 0 0 0 0 0 150 PSF 5 PSF 5 PSF 0 150 PSF 0 0 300 PSF 100 PSF 20 PSF 20 PSF 2000 PSF 2000 PSF 150 PSF 80 PSF 1 0 0 2000 PSF 2000 PSF 2 216 PSF 0 0 0 0
BARN ROOF
0
BARN BIOFUELS BARN ROOF DOC
0
0
0
0
0
0
0
0
0
15 PSF
15 PSF
15 PSF
15 PSF
150 PSF
55 PSF
0
0
50 PSF
50 PSF
SECTIONAL BAY
65 PSF
0
75 PSF
15 PSF
DEAD LOAD
2 PSF
250 PSF
100 PSF
0
LIVE LOAD
2000 PSF
2000 PSF
2000 PSF
2000 PSF
2000 PSF
2000 PSF
0
0
8000 PSF
0
0
CONCENTRATED LIVE LOAD
<0.00
LOAD TYPE
BARN GROUND LEVEL MECHANICAL
5 PSF
65 PSF
<0.00
0
AREA
0
20 PSF
1.75
0
0
15 PSF
135.49
0
0
0
150 PSF
3.50
0
0
MISC LOAD
0
20 PSF
270.98
0
0
0
80 PSF
406.47
ROOF LOADS PLAN 0 SNOW LOAD
0
55 PSF
5.25
TOWER0GROUND LOBBY 0 AND CORRIDORS 15 PSF 37.5 PSF 50 PSF 0 65 PSF 0 2 PSF 0 0 37.5 PSF 42.5 PSF 100 PSF 216 PSF 2000 PSF
0
100 PSF
THIRD FLOOR LOADS PLAN
0 5 PSF TOWER 0 0 AREA TOWER SERVICE ELEVATOR 0 0 0 0 SERVICE ROOM LOAD TYPE CORES 0 15 PSF 15 PSF 15 PSF FLOOR NONSTRUCTURAL 0 15 PSF 55 PSF 0 0 50 PSF FACADE 0 0 55 PSF 20 PSF 15 PSF 65 PSF CEILING AND SERVICES 0 5 PSF 100 PSF 80 PSF 150 PSF 20 PSF ADDITIONAL LOADS 0 0 2000 PSF 2000 PSF 2000 PSF 0 DEAD LOAD 0 20 PSF 0 0 0 42.5 PSF LIVE LOAD 150 PSF 100 PSF 0 0 0 0 CONCENTRATED LIVE LOAD 2000 PSF 2000 PSF
BARN BIOFUELS BA ROOF DO
0
150 PSF
0
BARN ROOF
FLOOR NONSTRUCTURAL
100 PSF
0 7.00
BARN 0GROUND LEVEL0 LABORATORIES 0 0 150 PSF 0 150 PSF 0 100 PSF 0 2000 PSF 0 0 100 PSF 0 2000 PSF
BARN MECHANICAL ROOMS
FACADE
677.45 300 PSF 0 541.96 216 PSF
BARN GROUND LVL BARN ENVIORNMENT GROUND LEVELDIAGRAMS LOADING CHAMBER GAMMA ROOM BARN CORRIDORS
BARN GROUND LEVEL BIOFUELS PLANT
BARN GROUND LEVEL MECHANICAL
0
0
0
100 PSF
0
150 PSF
0
100 PSF 2000 PSF
BARN LOADING DIAGRAMS STANDARD MECHANICAL BARN BIOFUELS BARN LOADING SLOPED BARN PANEL ROOMS BARN ROOF ROOFTOWER DOCK EARTH RAMP FACADE TOWER GROUND AREA 0 0 0 0TOWER SERVICE 25 PSFLOBBY 0 ELEVATOR SERVICE ROOM AND CORRIDORS 0LOAD TYPE 0 0 0CORES 0 15 PSF FLOOR NONSTRUCTURAL 0 15 PSF 37.5 PSF 15 PSF 15 PSF 15 PSF 0 0 0 FACADE 0 0 0 0 50 PSF 50 PSF 0 50 PSF 0 CEILING AND SERVICES 0 5 PSF 0 15 PSF 65 PSF 65 PSF 0 75 PSF 15 PSF ADDITIONAL LOADS 0 0 0 150 PSF 20 PSF 2 PSF 250 PSF 100 PSF 0 DEAD LOAD 0 20 PSF 37.5 PSF 2000 PSF 0 0 8000 PSF 0 0 LIVE LOAD 150 PSF 100 PSF 100 PSF 0 42.5 PSF 42.5 PSF 42.5 PSF 42.5 PSF 0 CONCENTRATED LIVE LOAD 2000 PSF 2000 PSF 2000 PSF 0 0 216 PSF 0 0 0 SNOW LOAD 0 0 0
DEAD LOAD
SNOW LOAD
100 PSF 2000 PSF
FLOOR NONSTRUCTURAL 0 0 TOWER FACADETOWER TOWER 0 TOWER 0 LABORATORIES CORRIDOR TOWER ROOF GENERAL STORAGE CEILING AND SERVICES 0 0 15 PSF 15 PSF 15 PSF 15 PSF 15 PSF ADDITIONAL LOADS 0 0 0 0 0 0 0 DEAD LOAD 0 0 5 PSF 5 PSF 5 PSF 5 PSF 5 PSF LIVE LOAD 150 PSF 300 PSF 0 0 0 0 0 CONCENTRATED LIVE LOAD 2000 PSF 2000 PSF 20 PSF 20 PSF 20 PSF 20 PSF 20 PSF SNOW LOAD 0 0 70 PSF 150 PSF 80 PSF 125 PSF 20 PSF MISC LOAD 0 216 PSF 2000 PSF 2000 PSF 2000 PSF 2000 PSF 0
LIVE LOAD
MISC LOAD
150 PSF 2000 PSF
FIFTH FLOOR LOADS PLAN 0 0
0
0
150 PSF
55 PSF
20 PSF
15 PSF
65 PSF
65 PSF
150 PSF
300 PSF
100 PSF
100 PSF
80 PSF
150 PSF
20 PSF
2 PSF
2
2000 PSF
2000 PSF
2000 PSF
2000 PSF
2000 PSF
2000 PSF
0
0
8
4
0
0
0
42.5 PSF
42.5 PSF
42.5 PSF
42.5 PSF
0
SNOW LOAD
0
0
0
0
0
0
42.5 PSF
42.5 PSF
0
0
0
0
216 PSF
0
0
0
MISC LOAD
0
216 PSF
0
0
0
0
0
216 PSF
ROOF LOADS PLAN
TO ST
15 PSF
DEAD LOAD
0
10.50 0
TOWER TOWER LABORATORIES CORRIDOR
15 PSF
0
0
TOWER GENERAL
0
LOAD TYPE
0 TOWER ASSEMBLY
TOWER ASSEMBLY TOWER ASSEMBY AREAS AREA LOBBIES
0
AREA
LIVE LOAD
AREA LOBBIES
0
0
0
0
TOWER SERVICE CORES
TOWER GROUND LOBBY AND CORRIDORS
TOWER SERVICE CORES
FLOOR NONSTRUCTURAL
PSF 100 PSF 100 PSF 100 PSF 100 PSF 0 8000 150 PSF 0 0 2000 PSF 2000 PSF 2000 PSF 0 0 FLOOR PLAN FIFTH FLOOR LOADS PLAN ROOF LOADS FLOORPLAN LOADS PLAN 0 THIRD LOADS 0PLAN 42.5 PSF SECOND 42.5 PSF LOADS FOURTH 42.5 PSF 42.5 PSF 0 FLOOR SNOW LOAD 0 0 0 0 0
37.5 PSF
15.75 2000 PSF 2000 PSF 1219.40 SECOND FLOOR LOADS PLAN
0
50 PSF
0
AREAS
17.50< 0
TOWER ELEVATOR SERVICE ROOM
FLOOR NONSTRUCTURAL
Prevailing winds TOWER ASSEMBLY TOWER ASSEMBY
TOWER GROUND LOBBY AND CORRIDORS
2000 PSF 0
CONCENTRATED LIVE LOAD
Syracuse Hancock International Airport 1/1 1:00 –12/31 24:00
0
0 ROOF0 LOADS PLAN
LOAD TYPE
The negatives of our daylighting study states that it would not be LEED certifiable. Also, the promotional material of this building makes many claims about materials that have not been able to be substantiated by the architectural drawings. Finally, the design of this building is very indicative of the designers previous work, however it is t
CORES
FLOOR NONSTRUCTURAL
AREA
ROOF LOADS PLAN
Radiation TOWER SERVICE
FACADE
LIVE LOAD
One way in which this building excels in a unique way is by THIRD FLOOR LOADS PLANinto the very design of the structure incorporating research and materials, namely the prototyped window and the sedum insulation properties study.
0
AREA TOWER ELEVATOR SERVICE ROOM
0
0
LOADING DIAGRAMS
LOADING DIAGRAMS AREA
0
CONCENTRATED LIVE LOAD
0
0
0
BEAM
FACADE
LIVE LOAD
0
0
0
LOAD TYPE
TOWER ELEVATOR SERVICE ROOM
CONCENTRATED LIVE LOAD STANDARD FIFTH FLOOR LOADS PLAN SECOND FLOOR LOADS PLAN SNOW LOAD BARN BIOFUELS FIRST FLOOR LOADSBARN PLANLOADING SLOPED BARN PANEL FOURTH FLOOR LOADS PLAN MISC LOAD BARN ROOF ROOF DOCK EARTH RAMP FACADE
FACADE
Over all, this building is very responsive the information we learned about the site and incredibly well considered when it comes to materials and furnishings. The building allows the most ventilation from. The sun beats hardest on the southern facade, which is designed to absorb the most light.
AREA
15 PSF
8000 PSF
FOURTH FLOOR LOADS PLAN LOADING DIAGRAMS
SECTIONAL BAY
75 PSF
0
FIFTH FLOOR LOADS PLAN THIRD FLOOR LOADS PLAN
0 0
0
SECOND FLOOR LOADS PLAN
0 20 PSF
5 PSF
Environmental Analysis |Solar | Wind | Daylighting
0 20 PSF
0
216 PSF
0
2000 PSF
0
handrail
FIRST 0 FLOOR LOADS PLAN
20 PSF
0
0
FOURTH 5 PSF FLOOR LOADS 5 PSF PLAN
W18x71 5 PSF
SKEWED BEAM TO COLU
STRUCTURAL SECTION
20 PSF
0
MISC LOAD
0
20 PSF
0
0
0
20 PSF
FLOOR NONSTRUCTURAL
CONCENTRATED LIVE LOAD 2000 PSF SECOND FLOOR LOADS PLAN FOURTH FLOOR LOADS SNOW LOAD 0 PLAN
0
0
250 PSF
42.5 PSF
0
0
2000 PSF
2 PSF
0
0
15 PSF
2000 PSF
20 PSF
0
0
15 PSF
DETAIL C
2000 PSF
150 PSF
0
15 PSF
2000 PSF
80 PSF
00
15 PSF
TOWER ROOF
BARN GROUND LEVEL LABORATORIES
0
100 PSF
0
15 PSF
PSF FIRST FLOOR 5w12x45 PSF PLAN 5 PSF w10x49 w10x88 5 PSF w12x87 LOADS w10x68 w12x58 0 0 0 0 COLUMN TYPES
20 PSF
TOWER STORAGE
0
0
0 2000 PSF
TOWER TOWER LABORATORIES CORRIDOR
0
65 PSF
2000 PSF
TOWER GENERAL
15 PSF
0
15 PSF
50 PSF 2000 PSF
65 PSF
MISC LOAD 2000 PSF
0
DETAIL A
15 PSF
5 STANDARD PANEL FACADE
100 PSF0
15 PSF
0
0
0
20 PSF
0
0
25 PSF 37.5 PSF
0
15 PSF
TOWER ASSEMBLY TOWER ASSEMBY 100 PSF AREAS AREA LOBBIES 2000 PSF
0
0
DETAIL B
0
42.5 PSF PSF
BARN BIOFUELS BARN LOADING SLOPED BARN 0 ROOF0 DOCK EARTH RAMP
55 PSF
LOAD TYPE
FIRST FLOOR LOADS PLAN
TOWER 20 PSF 20 PSF 20 PSF TOWER SERVICE ELEVATOR 70 PSF 150 PSF 80 PSF SERVICE CORES 2000 PSF 2000 PSFROOM2000 PSF
0 0 NONSTRUCTURAL
FLOOR NONSTRUCTURAL
CONCENTRATED LIVE LOAD
TOWER ROOF
BARN GROUND LEVEL LABORATORIES
15 PSF
0
0
TOWER STORAGE
15 PSF
0
0
TOWER TOWER LABORATORIES CORRIDOR
15 PSF
CEILING AND SERVICES
SNOW LOAD
TOWER GENERAL
15 PSF
ADDITIONAL LOADS
CONCENTRATED LIVE LOAD
PLAN
TOWER SERVICE CORES
TEST BED
Bauhaus
Dessau, W alter Gro pius 192 6
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WALL TYPE 02 SOUTH
WALL TYPE 02 SOUTH
WALL TYPE 02 SOUTH
WALL TYPE 02 SOUTH
WALL TYPE 01 SOUTH
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14" mtl studs With spray foam Insulation Gwb 6" Curtain wall mullion Metal flashing
WALL TYPE 02 SOUTH
14" mtl studs With spray foam Insulation
WALL TYPE 01 SOUTH
Gwb
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WALL TYPE 01 SOUTH
6" Curtain wall mullion Metal flashing
WALL TYPE 04 SOUTH
WALL TYPE 01 SOUTH Gwb
WALL TYPE 02 SOUTH
14" mtl studs With spray foam Insulation
WALL TYPE 01 SOUTH
14" mtl studsGwb With spray foam Insulation 6" Curtain wall mullion
Gwb 14" mtl studs With spray foam Insulation
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
6" Curtain wall mullion Gwb 14" mtl studs With spray foam Insulation
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH WALL TYPE 01 SOUTH
Gwb 6" Curtain wall mullion Metal flashing 6" cmu
WALL TYPE 04 SOUTH WALL TYPE 01 SOUTH
WALL TYPE 02 SOUTH
14" mtl studs With spray foam Insulation Metal flashing 6" Curtain wall mullion 6" cmu
6" Curtain wall mullion Metal flashing 6" cmu
WALL TYPE 03 SOUTH
WALL TYPE 01 SOUTH
Gwb
WALL TYPE 01 SOUTH
14" mtl studs With spray foam Insulation
14" mtl studs With spray foam Insulation 6" Curtain wall mullion
WALL TYPE 03 SOUTH WALL TYPE 02 SOUTH
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
6" Curtain wall mullion
WALL TYPE 01 SOUTH
Gwb
WALL TYPE 01 SOUTH
14" mtl studs With spray foam Insulation
WALL TYPE 03 SOUTH WALL TYPE 02 SOUTH
14" mtl studs With spray foam Insulation 6" Curtain wall mullion
6" Curtain wall mullion
WALL TYPE 01 SOUTH
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WALL TYPE 03 SOUTH
WALL TYPE 01 SOUTH
Gwb
WALL TYPE 01 SOUTH
Gwb
WALL TYPE TYPE 02 03 SOUTH SOUTH WALL
WALL TYPE 03 SOUTH
Bauhaus
14" mtl studs With spray foam Insulation
WALL TYPE 01 SOUTH
6" Curtain wall mullion Metal flashing
6" cmu
Gwb
The building’s relatively narrow width promotes daylighting while the energy-efficient north and south long facades optimize solar radiation in the winter. Sunlight also reaches the central area thought two different types of skylights, one at the Barn, and one at the Tower. The green roof was one of the original green design ideas that was actually implemented. Rooftop photovoltaic panels were prepared for but not incorporated. The most effective sun capturing device, a prototype test bay which is currently testing a solar power façade system that tracks the sun’s motion and uses lenses to concentrate sunlight 500 times, generating both electricity and heat.1
WALL TYPE 01 SOUTH
6" Curtain wall mullion WALL TYPE 04 SOUTH
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
WALL TYPE 03 SOUTH
6" cmu
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WALL TYPE 01 SOUTH
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6" Curtain wall mullion Metal flashing 6" cmu 14" mtl studs With spray foam Insulation 6" Curtain wall mullion 14" mtl studs With spray foam Insulation Gwb 6" Curtain wall mullion Metal flashing
WALL TYPE 04 SOUTH WALL TYPE 01 SOUTH
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WALL TYPE 02 SOUTH
Gwb 6" Curtain wall mullion WALL TYPE 02 SOUTH
Metal flashing 14" mtl 14" mtl studs studs With foam 6" cmu With spray spray foam Insulation Insulation 6" Curtain wall mullion Gwb
WALL TYPE 01 SOUTH
6" Curtain wall mullion 14" mtl studs With spray foam Insulation
WALL TYPE 01 SOUTH
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WALL TYPE 01 SOUTH
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WALL TYPE 01 SOUTH WALL TYPE 02 SOUTH WALL TYPE 02 SOUTH
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WALL TYPE 02 SOUTH
WALL TYPE 02 SOUTH
WALL TYPE 02 SOUTH WALL TYPE 02 SOUTH
Glass House, Lina Bo Bardi 1951
WALL TYPE 01 SOUTH
Metal flashing WALL TYPE 02 SOUTH
WALL TYPE 01 SOUTH
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REGENDERATIVE BREAKING ELEVATOR
RADIANT HEAT/COOL
6" cmu
Metal flashing 6" cmu
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HEAT RECOVERY EXHAUST
Metal flashing
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Dymaxion house, Buckminster Fuller 1933
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WALL TYPE 04 SOUTH
WALL TYPE 04 SOUTH
6" Curtain wall mullion
WALL TYPE 02 SOUTH
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“GREEN” MATERIALS
DAY LIGHTING
14" mtl studs With spray foam Insulation
WALL TYPE 01 SOUTH
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GREY WATER COLLECTION
GREEN ROOF
WALL TYPE 01 SOUTH
14" mtl studs With spray foam Insulation Gwb 6" Curtain wall mullion
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NATURAL VENTILATION
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BROWNFIELD ACCESSIBLE Passive Design |Overview | Roof | North | South | CULTURAL DESIGN
6" Curtain wall mullion
WALL TYPE 01 SOUTH
Gwb
14" mtl studs With spray foam Insulation 6" Curtain wall mullion
WALL TYPE 01 SOUTH
14" mtl studs With spray foam Insulation
WALL TYPE 03 SOUTH
6" Curtain wall mullion
WALL TYPE 03 SOUTH
WALL TYPE 03 SOUTH
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“GREEN” MATERIALS
Glass House, Lina Bo Bardi 1951
6" Rigid insulation Concrete metal deck
01
Dymaxion house, Buckminster Fuller 1933
Roofing Membrane
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GREEN ROOF
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Skylight at the Tower Section Detail TYPICAL SKYLIGHT NS SECTION AT TOWER
3/4" Recovery board
5/8" gwb
Uni-Strut p.v panels Not included Spray foam insulation Roofing Membrane 6" Rigid insulation Concrete metal deck
RADIANT HEAT/COOL
REGENDERATIVE BREAKING ELEVATOR
GEOTHERMAL BOREFIELD
RAISED FLOOR
Skylight at the Barn
Growth media Drain mat
Section Detail TYPICAL SKYLIGHTGrowth NS media SECTION AT TOWER
6" Rigid insulation Fluid applied Waterproof membrane Concrete metal deck
Drain mat 6" Rigid insulation Fluid applied Waterproof membrane Concrete metal deck
Explosion glazing
Additional substrate
Explosion glazing
Additional substrate
Root barrier Root barrier
Drain
Drain
Roof membrane Protective boards 6" Rigid insulation Insulation adhesive
Growth media
TYPICAL GREEN ROOF DRAIN DETAIL
TYPICAL GREEN ROOF DRAIN DETAIL
Roof membrane Protective boards 6" Rigid insulation Insulation adhesive
Section Detail TYPICAL SKYLIGHT NS SECTION AT BARN
Drain mat
Section Detail6" Rigid insulation Fluid applied TYPICAL SKYLIGHT NS SECTION AT BARN Waterproof membrane Concrete metal deck
Explosion glazing
WALL TYPE 01 NORTH
TEST BED Design |Overview ICON | South | BROWNFIELD ACCESSIBLE ACCESSIBLE | Roof | North GN Passive CULTURAL DESIGN
TEST BED ICON EFFICIENCY COMPACT HIGH FLUORESCENT AND LED LIGHTING Bauhaus
Dessau, W alter Gro pius 192 6
Carpenter Center for the Visual Arts, Le Corbusier 1963
“GREEN” MATERIALS GREEN ROOF
GREY MATERIALS WATER “GREEN” COLLECTION
DAY LIGHTING GREEN ROOF
“GREEN” MATERIALS
DAY LIGHTING
Concrete curb @ ramp
WALL TYPE 01
Attachment of curtain wall Mullions to structure 5/8" gwb F reveal at top and bottom
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PASSIVE DESIGN
GREY VENTILATION WATER NATURAL COLLECTION
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GEOTHERMAL RADIANT HEAT/COOL BOREFIELD
Glass House, Lina Bo Bardi 1951
RAISED FLOOR
Silicon seal
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Dessau, W REGENDERATIVE BREAKING alter Gro DISPLACEMENT VENTILATION RADIANT pius 192HEAT RECOVERY EXHAUST RAISED HEAT/COOL FLOOR 6 ELEVATOR
01
Bauhaus
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Metal flashing Window sill
Insulated glazing unit
Carpenter Center for the Visual Arts, Le Corbusier 1963
Sill transom flush w/ top of finished floor Corner IGU w/ overlapping outer glass layer
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DETAIL S-W CORNER
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Attachment of curtain Wall to structure
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High efficiency compact fluorescent and LED lighting, controlled by a daylight harvesting (auto dimming) system and auto shut-off occupancy sensors, are used throughout the building. or
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b25
b24
b23
b22
b21
b20
b19
b18
b17
b16
b15
b14
b13
b12
b11
b10
b9
t6
t5
t4
t3
t2
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Expansion joint cover
Exposed fasteners
Vent stack elevation
Air/vapor Barrier WALL TYPE 01
TOP OF SLAB AT PENTHOUSE EL. 91'-9" 13'-5 21"
b29
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Skylights
2" Rigid insulation
WALL TYPE 06 ELEV. MACHINE ROOM SLAB EL. 78'-3" SIX LEVEL S.S EL.74'-10"
2" Horizontal z channel
Aluminum cladding
Fascia to match wall type 01
19'-5 21"
7/8" Vertical channel 6" metal stud W/spray foam insulation 1/2" ext. sheating 5/8" gwb
Curtain wall with integrated blinds
16'-0 41"
FIFTH LEVEL S.S EL.58'-10" Plan Detail EXPANSION JOINT
Section Detail NE CORNER OF BARN
WALL TYPE 01
Guardrail @42"
13'-6"
FOURTH LEVEL S.S EL.42'-10" WALL TYPE 04
13'-6"
THIRD LEVEL S.S EL.29'-4"
SECOND LEVEL S.S EL.15'-10" WALL TYPE 01 WALL TYPE 03
Overhead door
15'-10"
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GRADE EL.-0'-6" BUILDING ELEVATION NORTH
FIRST LEVEL F.F EL.0'-0"
WALL TYPE 02 SOUTH
WALL TYPE 02 SOUTH
GLAZING LOCATIONS TO PROVIDE DAYLIGHTING
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
14" mtl studs With spray foam Insulation Gwb 6" Curtain wall mullion
14" mtl studs With spray foam Insulation Gwb 6" Curtain wall mullion
WALL TYPE 04 SOUTH
GREY VENTILATION WATER NATURAL COLLECTION
DAY LIGHTING GREEN ROOF
GREY MATERIALS WATER “GREEN” COLLECTION
WALL TYPE 04 SOUTH
“GREEN” MATERIALS
DAY LIGHTING
Metal flashing 6" cmu
Metal flashing 6" cmu
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
WALL TYPE 02 SOUTH
Bauhaus
Dessau, W alter Gro REGENDERATIVE BREAKING p
HEAT RECOVERY EXHAUST ELEVATOR
ius 1926GEOTHERMAL RADIANT HEAT/COOL BOREFIELD
WALL TYPE 02 SOUTH
NATURAL VENTILATION
REGENDERATIVE BREAKING RAISED FLOOR ELEVATOR
GEOTHERMAL BOREFIELD
RAISED FLOOR
Carpenter Center for the Visual Arts, Le Corbusier 1963 Gwb
The south facade features highly insulated glass with integrated electronically controlled blinds that provide solar heat and glare control, capable of operation at 15-degree increments. The ceramic white dots on the windows passively reduce glare and solar heat gain.
WALL TYPE 01 SOUTH
WALL TYPE 01 SOUTH
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6" Curtain wall mullion
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WALL TYPE 03 SOUTH
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t2
t3
t4
t5
t6
t7
t8
b8
b9
b10
b11
b12
b13
b14
b15
b16
b17
b18
b19
b20
b21
b22
b23
b24
b25
b26
b27
b28
b29
TOP OF EXHAUST STACK EL. 105'-4"
Slab edge
TOP OF SLAB AT PENTHOUSE EL. 91'-9"
Vent stack elevation
Vertical 7/8" channel
13'-5 21"
Wall type 01
Skylights
2" Rigid insulation
WALL TYPE 06
Rubber base Slab on grade Vapor barrier 6" Gravel bed
Z Channel 1/2" Exterior sheathing
ELEV. MACHINE ROOM SLAB EL. 78'-3" SIX LEVEL S.S EL.74'-10" 19'-5 21"
6" Metal stud Spray foam insulation 3" Perimeter rigid insulation
Vapor/air barrier
FIFTH LEVEL S.S EL.58'-10"
Plan detail SW TOWER CORNER
16'-0 41"
WALL TYPE 02 Section Detail WALL TYPE 07 SE CORNER
Guardrail @42"
13'-6"
WALL TYPE 04
FOURTH LEVEL S.S EL.42'-10"
Skylights
THIRD LEVEL S.S EL.29'-4" 13'-6"
N
TEST BED
ICON
SECOND LEVEL S.S EL.15'-10" WALL TYPE 03
Guardrail @42" BUILDING ELEVATION SOUTH
15'-10"
GN
ICON TEST BED BROWNFIELD Design | ACCESSIBLE BROWNFIELD Passive Overview | Roof | North | South | CULTURAL DESIGN
WALL TYPE 01
Removable wall panels
Explosion venting
GRADE EL.-0'-6"
FIRST LEVEL F.F EL.0'-0"
GN
Active Design |
PASSIVE DESIGN
Overview| Air System
| Raised Floor
NATURAL VENTILATION
GREEN ROOF
GREY WATER COLLECTION
DAY LIGHTING
“GREEN” MATERIALS
Exhaust system
DISPLACEMENT VENTILATION
HEAT RECOVERY EXHAUST
RADIANT HEAT/COOL
REGENDERATIVE BREAKING ELEVATOR
GEOTHERMAL BOREFIELD
RAISED FLOOR
After speaking to the staff at CoE, they mentioned that the Geothermal Bore field is no longer used as a heat pumping source. The only two systems that are being used currently are the Radiant heating cooling systems and Air system. There are two main issues that the geothermal borefield poses. The first being that, there is a climate control system, Heat exchange geothermal walls and heat pumps as part of this system which together make it consume a lot of energy for the system to function. The second issue being that the pipes in the system carry a highly corrosive liquid called Dynaline which is a good heat transfer material but also has degraded the piping system of the Geothermal field.
Active Design |
Overview
Radiant heating and cooling
| Air System | Raised Floor
AIR SYSTEM
PNT-2
RADIANT HEATING AND COOLING
Diffuser location coordinated in field
PNT-1 PNT-1Linear fluorescent light fixtures
GEOTHERMAL BOREFIELD
Supply Air Exhaust Return Air
The diagrams here show the different zones as part of the radiant heating and cooling system.
Expansion joint provide cover/wall plates
A portion of the heated and chilled water travels from the water-sourced heat pumps through a network of copper tubing bonded to extruded metal ceiling panels to all occupied areas of the building. as fluid carries thermal energy better than air, this means of occupant temperature control is significantly more energy-efficient than two more common methods, convection and conduction. - Arup Architects Most of the heating and cooling in rooms is provided via ceiling panels that are embedded with copper piping that efficiently carries warm or cool water; Unlike forced air heating systems, radiant ceilings can reduce dust. Radiant ceilings also have no emissions, chemicals or pollutants. Besides those, it is also a silent operation.
Mechanical Equipment
AIR SYSTEM
A modular system of seven water-sourced heat pumps provides both heating and cooling via geothermal energy which has been switched out to Radiant heating and cooling. The flexible system allows for varying numbers of the pumps to be dedicated to each use, depending on need. Isolation valves controlled by the building system open and close automatically to adjust the ratio of units devoted to heating and cooling.
PNT-2
Diffuser location coordinated in field
Raised floor system GALLERY SECTION PNT-1 PNT-1Linear fluorescent light fixtures
Active Design | DAY LIGHTING GREEN ROOF
GREY MATERIALS WATER “GREEN” Overview COLLECTION
Raised Floor | Air System PASSIVE| DESIGN DAY LIGHTING
“GREEN” MATERIALS NATURAL VENTILATION
GREEN ROOF
GREY WATER COLLECTION
DAY LIGHTING
“GREEN” MATERIALS
Raised floor system
Expansion joint provide cover/wall plates GEOTHERMAL RADIANT HEAT/COOL BOREFIELD
REGENDERATIVE BREAKING RAISED FLOOR ELEVATOR
ACTIVE DESIGN
DISPLACEMENT VENTILATION GEOTHERMAL BOREFIELD
HEATRAISED RECOVERY EXHAUST FLOOR
RADIANT HEAT/COOL
REGENDERATIVE BREAKING ELEVATOR
GEOTHERMAL BOREFIELD
GALLERY SECTION RAISED FLOOR
Underfloor Ventilation has several potential advantages over traditional overhead systems, including layout flexibility, improved thermal comfort and ventilation efficiency,reduced energy use in suitable climates and life-cycle costs. By using a raised floor system, it allows for even air distribution with lower fan speeds. The Tate raised floor system, situated 12 inches above the concrete deck, also provides convenient wire routing. Advanced building technologies have been used which include Building Management system and TIEQ systems. The different lighting, ventilation systems and energy systems perform based on the presence of users in the space. The automated system has sensors to detect the entry and exit of users of the helps which helps it optimize the use of the energy systems as well as their energy consumption. TIEQ lab is one of the research facilities in the building which operates on a separate system. This lab is set up as a office space. The mechanical system used here can be customized to individual users. They can control different environmental conditions like ventilation, temperature and humidity around their area at their desk.
TATE® All Steel Raised Floor System or TATE® ConCore Raised Floor System
Base Building Displacement Floor Diffuser
Heating and Cooling Zone Cooling Zone Raised Floor
Heating Zone RADIANT HEATING AND COOLING ZONES
Piping network
Pedestal assemblies with swiveled head to match slope of ramp.
Ramp threshold (Joins top of ramp to access floor)
Fascia plate assembly (cut to match slope of ramp. Attach fascia plate to bottom angle with pop rivets or threaded fasteners. edge is finished with fascia top trim angle)
Access floor panels Bolted stringers
Ramp shoe assembly
Fascia bottom angle (cut to match slope of ramp. Fasten to sub-floor with adhesive)
Elevator Door
Access panel fastened
Floor Wall
Mid span pedestal or structural angle (as shown for doorways where high traffic and rolling loads occur) Panel cut to suit
STANDARD HEIGHT RAMP
BUILDING MANAGEMENT SYSTEM AND TIEQ SYSTEMS
LEVEL 4 PART PLAN of RADIANT PANEL