P O R T F O L I O TIM GREENING
CONTENTS
SELECTED WORKS REGIONAL CRAFT NET-ZERO MODULAR INK FACTORY HERRINGBONE HOUSE GENERAL CANNABIS HQ GATEWAY
01 11 15 19 23 27
GRAPHIC DESIGN
33
ILLUSTRATION
37
MODELING
41
GREENING.ARCH@GMAIL.COM
631-879-7539
REGIONAL CRAFT
An exploration in critical regionalism, this project was focused around the thesis “how alternative livework arrangements can expand economic opportunity for artisans and cultivate authorship of new building methods and components”
Located in Santa Maria Atzompa, Oaxaca, Mexico the solution was to re-imagine an existing home and studio for a multi-generational family of local ceramic artisans. This included a reorganization of the workspace for simpler and efficient workflows, creation of a path through the studio to a showroom, and organization of the living spaces that allowed the family to enjoy views of the surrounding landscape. Also developed were structural beams that would allow the family to develop and create building components that could be tested and showcased within their shop; opening up additional revenue streams and creative outlets. The focus here was to create an opportunity for the family to have authorship of their space, thereby enhancing the regional aspects of the home studio. As street walls are a typical component of homes in rural Mexico, a facade was developed using customized breeze blocks to feature as a screen version of this street wall. The form for the breeze blocks was then scaled, stretched and reoriented to be used as lightwell components in the roofing system. New York Institute of Technology Thesis - Fall 2017-Spring 2018
01
14
13
14
13
12
12
11
5 3
1
3
11
5 6
6
7
7
10
1
10
9
2
2
4
4
8
9
8
1. MAIN ENTRY 1. MAIN ENTRY 2. TEMPORARY AUTOMOTIVE 2. TEMPORARY SHOP AUTOMOTIVE SHOP 3. LOUNGE AND LEARNING 3. LOUNGE SPACE AND LEARNING SPACE 4. COURTYARD 4. COURTYARD 5. PURIFICATION AND MATERIAL 5. PURIFICATION AND MATERIAL STORAGE STORAGE 6. KILNS 6. KILNS 7. SAWDUST REDUCTION7.AREA SAWDUST REDUCTION AREA 8. WORKSHOP 8. WORKSHOP 9. PRODUCT STORAGE 9. PRODUCT STORAGE 10. SHOWROOM 10. SHOWROOM 11. DINING AREA 11. DINING AREA 12. KITCHEN 12. KITCHEN 13. MASTER SUITE BATH13. MASTER SUITE BATH 14. MASTER SUITE BED 14. MASTER SUITE BED
TALLER COATLICUE TALLER COATLICUE - GROUND FLOOR - GROUND FLOOR SCALE = 1/8”=1’-0”
SCALE = 1/8”=1’-0”
N
N SCALE:
1’
4’
8’
12’ SCALE:
1’
4’
8’
12’
04
05
EARLY STAGE CONCEPT COLLAGE
06
13
12
11 10
6
7
8
9
1
2
5
4
3
1. BEDROOM 1 2. BEDROOM 2 3. BATH 1 4. BATH 2 5. BEDROOM 3 6. BEDROOM 4 7. BEDROOM 5 8. BEDROOM 6 9. MATERIAL STORAGE 10. MEETING AND VIEWING TERRACE 11. ARTISAN RESIDENCY BED 1 12. ARTISAN RESIDENCY BATH 13. ARTISAN RESIDENCY BED 2
TALLER COATLICUE - FIRST FLOOR SCALE = 1/8”=1’-0”
N SCALE:
1’
4’
8’
12’
BRICK DESIGN STUDIES
BREEZEBLOCK DESIGN STUDIES VOID
4
1
5
12”
6
8 9 INITIAL SKETCH STUDIES
INITIAL SKETCH
11
12
SELECTED FORM
2
12”
10
16 17 15
18
14
7
8” 12”
CUBE (A)
CUBE (A)
CUBE (A)
CUBE (A)
LOFT CURVES (B)
LOFT CURVES (B)
LOFT CURVES (B)
LOFT CURVES (B)
BOOLEAN DIFFERENCE (B FROM A)
BOOLEAN DIFFERENCE (B FROM A)
13
19
1
AGGREGATE
12”
CONNECTION TO BARRO PRODUCTS
1. REINFORCED PRE-CAST CONCRETE ROOF SLAB SYSTEM 2. RAIN GUTTER 3. STEEL TUBE RAIN CHANNEL 4. POLYURETHANE MOISTURE MEMBRANE 5. METAL ROOF WINDOW FRAME 6. DOUBLE GLAZED STRUCTURL WINDOW WITH AIR SPACE 7. REINFORCED PRE-CAST CONCRETE LIGHTWELL
6
5
4
3
7
3
2
INFILL
21 22
BOOLEAN DIFFERENCE (B FROM A)
23
BOOLEAN DIFFERENCE (B FROM A)
24
ROOF AND LIGHTWELL DETAIL SCALE = 1-1/2”=1’-0”
1
2
20
3 4
AGGREGATION OF DESIGN
BLOCK 1
BLOCK 2
ROOF DESIGN STUDIES
BLOCK 3
25
26
27
28
BASE GEOMETRY
VOIDS ADDED
29 30
31 32
BLOCK 4
5
1. CUSTOM 12” x 12”x 8” CERAMIC BREEZE BLOCKS 2. STEEL FRAME CONSTRUCTION 3. RAIN GUTTER 4. ROOFING SURFACE 5. POLYURETHANE MEMBRANE 6. PLYWOOD UNDERLAYMENT 7. THERMAL INSULATION 8. REINFORCED CONCRETE ROOF SLAB 9. THERMAL INSULATION 10. PLASTER SOFFIT CONSTRUCTION 11. STEEL TOP RAIL FOR CURTAIN WALL SYSTEM COLLECTIVE UNIT 12. DOUBLE GLAZED CURTAIN WALL 13. STEEL BOTTOM RAIL FOR CURTAIN WALL SYSTEM 14. STEEL FRAME CONSTRUCTION 15. RAIN GUTTER 16. TREATED HARDWOOD DECKING 17. CEMENT SCREED 18. UNDERLAYMENT 19. THERMAL INSULATION 20. REINFORCED CONCRETE FLOOR SLAB 21. HARDWOOD FLOORING 22. CEMENT SCREED 23. UNDERLAYMENT 9’ x 9’ SQUARE 24. GRID THERMAL INSULATION 25. REINFORCED CONCRETE BEAM 26. TREATED HARDWOOD SIDING 27. METAL DOOR FRAME WITH TRACK FOR SLIDING DOOR SYSTEM 28. SLATTED HARDWOOD EXTERIOR SLIDING DOOR PANEL 29. STEEL BOTTOM TRACK FOR SLIDING DOOR SYSTEM 30. CONCRETE FLOOR SLAB 31. COMPACTED SAND SUBSTRATE 32. COARSE GRANULAR SUBSTRATE
1
7
6
2
8
9 10
11
12 13
1. REINFORCED PRE-CAST ROOF SLAB SYSTEM 2. STEEL CONNECTION PLATE 3. EXPANSION ANCHOR FASTENERS LAID IN EPOXY 4. STEEL REINFORCING BAR LAID IN EPOXY 5. REINFORCED CONCRETED COLUMN 6. STEEL CONNECTION PLATE 7. EXPANSION ANCHOR FASTENERS LAID IN EPOXY 8. STRUCTURAL STEEL TUBE WELDED TO STEEL PLATE 9. WELDED ANGLED STEEL PLATE ANCHORS 10. EXPANSION ANCHOR FASTENERS LAID IN EPOXY 11. REINFORCED CONCRETE FLOOR SLAB 12. COMPACTED SAND SUBSTRATE 13. COARSE GRANULAR SUBSTRATE
3 4
7
5 6
10’-0” O.C.
FRONT FACADE AND WALL DETAIL
COLUMN AND ROOF DETAIL
SCALE = 1-1/2”=1’-0”
SCALE = 1-1/2”=1’-0” INDIVIDUAL COMPONENTS
ISOMETRIC ROOF SECTION
FRONT FACADE AND WALL DETAIL SCALE = 1-1/2”=1’-0”
TALLER COATLICUE - EAST SECTION SCALE = 3/16”=1’-0”
SCALE:
1’
4’
8’
N
10
NET-ZERO MODULAR
In an effort to advance their commitment to sustainability, a major higher education institution asked for sustainable solutions to their need for new and renovated campus housing. We set out with the intent of developing a workable, simple solution that would provide institutions and developers with a means of building healthier, low-to-zero energy structures for students to occupy; while also bringing the cost and time-frame of construction down. The team focused on developing a solution based on the combined attributes of Net-Zero Buildings/Passive House Design and Modular Construction. It was our assertion that, based on current understanding these technologies, institutions could build residence halls to higher standards of occupant health, wellness and sustainability for costs comparable to, or even below, that of current conventional construction methods. The ultimate goal was to package this information into a graphical presentation that was easy to digest for the institution’s stakeholders. Project Team Principal: Design Director: Sr. Project Manager: Sr. Technical Architect: Designer | Planner:
Marc Spector Michael Mannetta Joseph Randazzo John Machovec Tim Greening
11
PASSIVE HOUSE AIRTIGHT ENVELOPE
CONTINUOUS INSULATION
MODULAR CONSTRUCTION
BALANCED HEAT- AND MOISTURE-RECOVERY VENTILATION
PASSIVE HOUSE
NET ZERO ENERGY
NET ZERO-MODULAR
HIGH-PERFORMANCE WINDOWS AND DOORS
MINIMAL SPACE CONDITIONING SYSTEM
ENERGY REDUCTION REDUCED CONSTRUCTION COST
ENHANCED QUALITY CONTROL INCREASED QUALITY CONTROL
OPERATIONAL COST REDUCTION
RENEWABLE ENERGY CREATION
REDUCED CONSTRUCTION COST
ENERGY DEMAND REDUCTION
REDUCED CARBON EMISSIONS
INCREASED QUALITY CONTROL
NET POSITIVE ENERGY POTENTIAL
REDUCED PROJECT TIMELINE
FACTORY CREATE CONSISTENT QUALITY AIRTIGHT OF WORKENVELOPE PRODUCT REDUCED PROJECT TIMELINE NET ZERO ENERGY– CONTROLLED ENVIRONMENT WITHIN ON-SITE ENERGY
RENEWABLE ENERGY SOURCES
– CONSISTENT WORK FORCE: WEATHER DOES NOTBUILDING BREAK UP SCHEDULE, WORKERS LESSTO LIKELY TO LEAVE TO PICK UP WORK ELSEWHERE BEST PATH NET ZERO OFFSET OF NZE COST – ASSEMBLY LINE APPROACH ALLOWS FOR SPECIALIZED WORKERS – ROBOTIC MACHINERY AND FRAME JIGS AID IN PRECISION WELDS, FRAMING, AND ASSEMBLY OF COMPONENTS
OFFSET OF NZE BUILDING COST OPERATIONAL COST REDUCTION ENERGY DEMAND REDUCTION AIRTIGHT ENVELOPE
COST REDUCTION
BALANCED ENERGY SUPPLY WITH ENERGY DEMANDS
BEST PATH TO NET ZERO
– SIMULTANEOUS CONSTRUCTION OF COMPONENTS ALONG WITH FOUNDATIONS AND CIVIL/SITE WORK, REDUCING TIMELINE – REDUCED CONSTRUCTION ADMINISTRATION COSTS DURING DOWNTIME AND WEATHER INCIDENTS, ETC. – FACTORY WORK NOT SUBJECT TO PREVAILING WAGE LABOR RATES – 500,000 SF FACTORY SPACE WITHIN A FEW HOURS OF PROJECT SITE REDUCES TRANSPORTATION TIME AND ASSOCIATED COSTS
RENEWABLE ENERGY CREATION
HIGH-PERFORMANCE DESIGN & IMPLEMENTATION
USE OF PASSIVE DESIGN PRINCIPLES FOR OPTIMAL PERFORMANCE
REDUCED CARBON EMISSIONS NET POSITIVE ENERGY POTENTIAL
NET ZERO POTENTIAL ENERGY PRODUCTION – CONSTRUCTION IS COMPLETED FROM THE INSIDE OUT - SEALING OF BOXES, SWITCHES, PENETRATIONS, ETC. MORE EASILY ACHIEVED BEFORE OUTER SHELL IS ATTACHED – MODULARIZATION ALLOWS FOR INDIVIDUAL HEATING AND COOLING UNITS – PRECISION WITHIN THE FACTORY CAN AID IN THE PLANNING AND ASSEMBLY OF EACH MODULE, INCLUDING THE FACADE AND RENEWABLE ENERGY PRODUCTION SYSTEMS – INCREASED EFFECTIVENESS OF THE AIRTIGHT ENVELOPE
NET ZERO COST OFFSET – REDUCED CONSTRUCTION COSTS ACHIEVED THROUGH MODULAR CONSTRUCTION CAN OFFSET COSTS INCURRED FROM NET ZERO ENERGY AND PASSIVE HOUSE DESIGN STRATEGIES
COMPARATIVE TIMELINES PROCUREMENT/LEAD TIME
CONVENTIONAL CONSTRUCTION PROCUREMENT/LEAD TIME
FACTORY CONSTRUCTION
TRANSPORT
FIELD CONSTRUCTION 30-40% TIME SAVINGS
MODULAR CONSTRUCTION
MODULAR CONSTRUCTION University of Michigan Net Zero-Modular Design Presentation
12 02.06.2020
CONCEPTUAL SINGLE MODULE ASSEMBLY FACTORY INSTA VRF UNIT LLED LOCALIZED WITHIN M ODULE
RUCT
ION A
COUS
TICAL
NSTRUCTIO N ACOUSTI ASSEMBLY FACTORY IN CAL SIDE WALL STALLED
ENTR Y WA
LL PREF ABRIC
ATED S
TEEL
MODU
LE FR
AME FACT OR WIND Y ASSEMB OW A LED E SS X PASS EMBLY CO TERIOR W IVE H OUSE NSISTENT ALL / PRINC W IPLES ITH
LOW CAR BO N
University of Michigan NET ZERO ENERGY NetBUILDING Zero-Modular PREMIUM Design Presentation Institutional Quality Housing
Y PL
E RV ATIO N
O EMB
D DIE
CA
RB
O
@ BREAKEVEN COST OF CONVENTIONAL CONSTRUCTION*
USING MODULAR CONSTRUCTION
USE
LOW CAR BO N
NET ZERO ENERGY
T WA
T WA
NS
OW
GY ER EN
ER
CO
02.06.2020 SU P
NS
E RV ATIO N
C
0
CARBON NEUTRAL
0
CARBON NEUTRAL
C
MODULAR CONSTRUCTION SAVINGS Savings on Total Labor Costs
NET ZERO ENERGY BUILDING
CO
R INS U SYST LATED FA E C OR FIE M FACTO ADE RY LD IN STALL ED
Y PL
SU P
NET ZERO ENERGY
ER
SUPE
NET ZERO - MODULAR STUDENT HOUSING L
LOW ENERGY USE
REMENT + VERIFICATI ON ASU ME
ONST
N
LAR C
REMENT + VERIFICATI ON ASU ME
MODU
MODULAR CO
EMBODIED CARBON
13
POTENTIAL SOLUTIONS
DHW ELECTRIC HEAT PUMP
ENERGY RECOVERY VENTILATION UNIT
BRISE SOLEIL SUN SHADING REDUCE GLARE AND SOLAR HEAT GAIN
MULTI-PANE GLAZING IN WINDOWS MITIGATE SOLAR HEAT GAIN
PHOTOVOLTAIC ARRAYS CAPTURE RENEWABLY SOURCED SOLAR ENERGY
(PHOTOVOLTAIC ARRAYS CAN ALSO BE UTILIZED IN OPEN FIELDS OR AS PARKING CANOPIES, ETC. WHERE REQUIRED)
SUPER-INSULATED WALLS / FACADE SYSTEM MITIGATE THERMAL BRIDGING OF EXTREME OUTDOOR AIR
SINGLE MODULAR UNIT
LOCAL VRF | CHW/HW FAN COIL UNIT WITHIN EACH MODULE
ENERGY STAR APPLIANCES
UTILITY CHASE BETWEEN MODULAR UNITS AND CORRIDORS
RECYCLING OF HOT WATER AND WATER CONSERVING FIXTURES
INSULATED FOUNDATION WALLS AND SLAB
GEOTHERMAL HEAT PUMPS AS (OPTIONAL) SUPPLEMENTAL SYSTEM TO HELP REDUCE HVAC AND HOT WATER ENERGY REQUIREMENTS
NET ZERO - MODULAR STUDENT HOUSING University of Michigan Net Zero-Modular Design Presentation
02.06.2020
14
INK FACTORY
The project site was a component of the proposed North Station Development Master Plan in North Philadelphia. The task was to redevelop the dilapidated production plant and warehouse buildings into an adaptive reuse structure. These conjoined, historic structures would serve as a single multi-use building with programming that included a boutique hotel, co-working spaces, production studios, gaming center, E-Sports Arena and restaurant. To create a visual connection through the public areas in the project, a void was cut through four of the building’s five stories; with celebratory circulation connecting the basement, first and second floors. The existing loading bay was utilized for it’s natural conversion into a main entry point. The entry zone was then carried through the building and into a public plaza, connecting the building with the train station and the rest of the proposed development. Overlooking this plaza a public restaurant is divided by what was once the facade of the structure; the expansive factory windows making way for connecting portals. The vision of the building was to create a hub of excitement for both commuters and local residents to gather. Project Team Principal: Design Director: Designer | Planner: Planner:
Marc Spector Michael Mannetta Tim Greening Carl Ricaurte
15
Base 3D modeling, components, and textures developed using Autodesk Revit. Rendering by third party.
SITE PLAN
LEGEND FITNESS CENTER RESTAURANT SERVICE DAYCARE HOTEL LEVEL 1 ROOF GARDEN
DAY CARE 1283 SF
KITCHEN 1537 SF
FITNESS RECEPTION 546 SF
RESTAURANT 6375 SF
ROOF GARDEN 7536 SF
LOCKER ROOM 487 SF
LOCKER ROOM 497 SF
FITNESS 6287 SF
MECHANICAL 602 SF
HOTEL LINENS 283 SF
HOTEL OFFICES 447 SF
HOTEL LOBBY
HOTEL LEVEL 1 201 309 SF
204 203 202 479 SF 306 SF 306 SF
207 205 206 325 SF 383 SF 385 SF
208 210 211 209 212 385 SF 385 SF 385 SF 385 SF 300 SF
213 347 SF
SECOND FLOOR PLAN
17
LEGEND MAKERS MARKET / EVENT SPACE CAFE / BISTRO SERVICE HOTEL SERVICE OFFICE AREA EVENT SPACE / GAME HOUSE RETAIL STORE
CAFE / BISTRO 1103 SF INK FACTORY LIVING ROOM 3549 SF
MECHANICAL ROOM 602 SF
MAKERS / ARTISANS 15510 SF
MEZZANINE AREA ABOVE
EVENT SPACE / GAMEHSE 8253 SF
STORAGE / UTILITY 283 SF
HOTEL ELEVATOR LOBBY 976 SF
RETAIL STORE 763 SF
OFFICE AREA 329 SF
UP DN
GROUND FLOOR PLAN
MODEL VIEW: SOUTHWEST ENTRY
LEGEND
LEGEND GAMING LOBBY SERVICE HOTEL VALET
27
28
29
30
31
32
16
17
18
19
MULTI-MEDIA & PRODUCTION STUDIOS SERVICE POST-PRODUCTION HOTEL LEVEL 4
VIP GAMING BAR/RESTAURANT 1803 SF
20
21
22
23
2
3
4
5
6
7
8
9
10
11
12
24
13
UNIT 2 775 SF
UNIT 3 775 SF
UNIT 4 748 SF
MUSIC / ART STUDIOS UNIT 5 1738 SF
UNIT 6 1705 SF
UNIT 7 1699 SF
UNIT 8 1505 SF
GAMING LOBBY 5374 SF MECHANICAL 604 SF
GROUND FLOOR FOUNDATION
HOTEL VALET PARKING 16,407 SF
1
MUSIC / ART STUDIOS UNIT 1 1084 SF
TOILET TOILET 494 SF 522 SF
36
25
15
34 35
26
14
33
POST-PRODUCTION 7263 SF ELEVATOR LOBBY 308 SF
LOWER LEVEL PLAN
VIP GAMING ROOM 2602 SF
GAMING VR ROOM 912 SF
HOTEL LINENS 286 SF
HOTEL LEVEL 4 501 309 SF
504 502 503 479 SF 306 SF 306 SF
505 325 SF
506 507 383 SF 385 SF
FIFTH FLOOR PLAN
510 512 508 509 511 385 SF 385 SF 385 SF 385 SF 300 SF
513 347 SF
18
HERRINGBONE HOUSE
The Herringbone House was the proposed solution for a mixed-use, multi-unit residential project in Clinton Hill, Brooklyn. Programming allowed for the creation of commercial spaces including offices and light fabrication, and called for studio, one, two and three bedroom dwelling units to be provided. The form was inspired by local, historic, brickwork coursing found while touring the neighborhood in Clinton Hill, Brooklyn. As the coursing was mainly attributed to historic residences, it would serve as the form for the residential portion of the building. Slices through the massing sought to connect the structure with parks and commercial hubs found in the neighborhood, allowing foot traffic pathways connecting these hubs through the project. The slice connecting the park spaces was utilized as the main circulation corridor for the residences; while the slice for the commercial connections was utilized for the commercial spaces within the project. The overall concept was to provide a mixed-use building that would serve as a live-work space on a larger scale. Building residents would be allowed space to create or conduct business in the sublevel spaces and/or sell their creations in the ground level shops. These spaces would also be open to residents within the local community, providing an economic connection between residents of the neighborhood. New York Institute of Technology Summer 2017
19
20
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SITE CONSTRAINTS
PARK CONNECTION
COMMERCIAL CONNECTION
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PLAZA CARVING
STACK
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21
2 BR
1 BR
S
1 BR
1 BR 3 BR
3 BR 1 BR
S S
1 BR 2 BR
N
SECOND & FOURTH FLOORS
SOUTH ELEVATION
22
GENERAL CANNABIS HEADQUARTERS
A Management Consulting Corporation in the Cannabis industry was looking for a refresh at their current corporate headquarters. Located in an existing bank building on the outskirts of Denver, the design team was tasked with creating corporate offices for multiple subsidiary groups. The subsidiary groups were as varied in their requirements as their skill-sets. The challenge was to create a cohesive design between the two existing floors, while also meeting the needs of the individual groups. The team was required to integrate secured finance spaces, multiple conference rooms, offices and open workspaces along with a prototype showroom space for partnering retailers used by the design team for the lifestyle brand company. Programming for four companies had to fit within the two ~10,000 SF plates. This meeting and showroom space was introduced as the main feature of the corporate headquarters; with an additional focus on the amazing fireplace that was a holdover from the original bank design. Project Team Sr. Project Manager: Project Architect: Junior Planner: Interior Designer:
Thomas Scotto Jr. Laura Lievano Tim Greening Stephanie Bias
23
LOUNGE
CONFERENCE
SHOWROOM
COLLABORATIVE WORKSPACE
DISPLAY WALL & SHELVING
CHIEFTON WORKSPACE
PRODUCT DISPLAYS
DISPLAY WALL
CHIEFTON OFFICE
KITCHEN & GUEST AREA LOBBY
FIRST FLOOR
24
IPG OFFICE
IPG OFFICE
IPG OFFICE
COLLABORATIVE WORKSPACE PANTRY
A
HR OFFICE
FINANCE WORKSPACE
IPG WORKSPACE
B
CONFERENCE
RECEPTION
FINANCE OFFICE
FINANCE OFFICE
C FINANCE MOTHER’S OFFICE ROOM
GC OFFICE
GC OFFICE
A
FINANCE OFFICE
GC OFFICE GC WORKSPACE
FINANCE OFFICE
CONFERENCE
GC OFFICE
SECOND FLOOR B
C
25
26
G AT E WAY
At Manhattan’s southern tip, New York Harbor sits among an estuary; where the fresh water flowing from the Hudson River meets the salt-filled currents of the Atlantic Ocean. The River Project finds its home here. It is responsible for studying and monitoring aquatic life and water levels within the river and the harbor. The project brief called for the creation of an “Estuarium.” This would be a place of research and education with museum, aquarium, cafe and auditorium components. The major programming was divided into two equivalent cubes; the “living lab” for research and education in the southern cube and the cafe and aquarium spaces in the northern cube. The two cubes were split with a central atrium and indoor garden space. Pushed and pulled, the cubes were further differentiated by sinking the lab spaces into the river, enabling them to flood with the changing tides as if to act in place of a shoreline. The northern cube was allowed to grow upward, culminating in a space-frame glass enclosure highlighting the building’s presence to the community. New York Institute of Technology Spring 2017
27
1. WET LAB EDUCATION & COLLECTION 2. WET LAB, DISPLAY & STORAGE 3. DRY LAB, DISPLAY & STORAGE 4. SUBMERGED OBSERVATION ROOM 5. COURTYARD 6. CIRCULATION CORE #1 7. ATRIUM 8. AQUARIUM ENTRY 9. CIRCULATION CORE #2 10. RIVER WALK
10
9
8 7
6
1
5
4 2
3
GROUND FLOOR
SITE PLAN
N
28
1. ROOF DECK 2. AMPHITHEATER 3. COURTYARD 4. CIRCULATION CORE #1 5. AUDITORIUM 6. CONNECTION CORRIDOR 7. CIRCULATION CORE #2 8. AQUARIUM & MUSEUM EXHIBIT HALL 9. CIRCULATION RAMP 10. TECHNOLOGY CENTER 11. WOMEN’S TOILET 12. MEN’S TOILET 13. MECHANICAL ROOMS 14. CIRCULATION CORE #3 15. RIVER WALK
10
14
9
8 15
11
12
7
13
6
4
1
3
5
2
THIRD FLOOR
N
29
1. CAFE 2. AQUARIUM & MUSEUM EXHIBIT HALL 3. LOW LIGHT AQUARIUM EXHIBITS 4. CIRCULATION RAMP 5. TECHNOLOGY CENTER 6. ADMINISTRATIVE OFFICES 7. ATRIUM & INDOOR GARDEN 8. AMPHITHEATER 9. ROOF DECK 10. WET LAB EDUCATION & COLLECTION
1
5
4
2
4
6
NORTHWEST SECTION
4
3
8
9 7
10
31
GRAPHIC DESIGN
33
CANNAROLLA STYLE GUIDE
Primary Logo
LOCKUPS
P I N N A C L E Logo Alterations Monochrome - Green
USAGE
White on Green
3.39”
.42”
.125” .175” (50%) .525” (150%)
.35” (100%) .125” .08”
P I N N A C L E
P I N N A C L E
.08”
.28”
3.39” .125”
.35” (100%)
Monochrome - Slate
P I N N A C L E
White on Slate
P I N N A C L E
.35” (100%) .125” .08”
CANNAROLLA STYLE GUIDE COMPONENTS
STANDARD FONTS
Sans Icon - Slate
P I N N A C L E
Sans Icon - Green
P I N N A C L E
Linear
.08”
MODIFIED TYPEFACE FOR LOGO
ICONS
TITLES AND HEADERS
cannarolla CANNAROLLA
[Giorgio Regular]
BODY FONT(S) Calibri Light Lucida Bright
ICON VARIATIONS
BADGES
P I N N A C L E Icon - Primary
Icon - Alternates
PPT PPT
COLOR PALETTE
HEX: 231F20 R,G,B: 35,31,32 C,M,Y,K: 0,0,0,100
HEX: C7C457 R,G,B: 199,196,87 C,M,Y,K: 25,14,81,0
HEX: 58595B R,G,B: 88,89,91 C,M,Y,K: 0,0,0,80
34
Little T est. 2019
35
PV CANOPY
ROOF DECK LOBBY SECOND DECK
MAIN DECK
ZERO DECK
SECOND DECK
PATTERN FORMULATION
NYC
MAIN DECK
TERRACE SECOND DECK
ZERO DECK
POLYHEDRON
MIRROR
MIRROR
MIRROR GROUP
TERRACE
MAIN DECK
+
ROOF DECK
PV CANOPY SECONDSECOND DECK DECK MAIN DECK
CLOSE ARC
GRADE
= ZERO DECK
TERRACE
PV CANOPY
CARVED PATH MAIN DECK
ADD
ZERO DECK
ROOF DECK
SECOND DECK
ZERO DECK
DIAMOND PATTERN
MAIN DECK TERRACE
VOIDS ADDED
CARVED PATH
PV CANOPY
ZERO DECK ROOF DECK
36
I L L U S T R AT I O N
37
39
40
MODELING
41
43 57
44