BOSTON ARCHITECTURAL COLLEGE Master’s of Architecture Thesis Proposal
Weathering Defining architecture through methods of change, experience and observation within the natural world around us.
Date of Thesis Proposal: May 4, 2011 Thesis Seminar Class: Spring 2011 Thesis Start: Summer 2011 Thesis Document Due: May 18, 2012 Degree to be Awarded by the BAC: Master of Architecture
Thesis Student: Ryan Martin
Thesis Director: Ian Taberner
Thesis Representative: Cynie Linton
Thesis Advisor: Chip Piatti
2
An Architectural Thesis
3
Architectural Biographical Note: My name is Ryan Martin. I have a Bachelor’s Degree in Environmental Design in Architecture from the University of Colorado. I have worked at three Architectural firms in the Boston Area: Bruner/Cott & Associates, Isgenuity, LLC, and Nelson. I am a LEED Accredited Professional and a member of NCARB.
Ryan William Martin 86 Ellery Street ◾ Cambridge, MA 02138 303.808.1462 ◾ ryan.martin@the-bac.edu
DESIGN SKILLS ◾ Architectural Design ◾ Graphic Design ◾ Client Satisfaction
◾ Revit Architecture Software Expertise (BIM) ◾ Commercial & Institutional Building ◾ Construction Documents
PROFESSIONAL EXPERIENCE NELSON ARCHITECTS, Boston, MA Job Captain, Designer ISGENUITY, LLC, Needham, MA Project Architect BRUNER/COTT & ASSOCIATES, Cambridge, MA Project Architect
July 2011 - Present
March 2011 - July 2011
December 2007 - July 2010
SPECIAL QUALIFICATIONS • LEED Accredited Professional • IDP
July 2009 Completed: March 2012
EDUCATION BOSTON ARCHITECTURAL COLLEGE Candidate for Master of Architecture UNIVERSITY OF COLORADO Bachelor of Environmental Design in Architecture
4
September 2007 - May 2012 May 2004
Table of Contents
Part 1:
Introduction.............................. page 7
Part 2:
Thesis Seminar & Studio.......... page 15
Part 3:
Introductory Review................. page 19
Part 4:
Preliminary Review................... page 55
Part 5:
Schematic Review.................... page 85
Part 6:
Design Development Review.. page 115
Part 7:
Final Review............................ page 145
Part 8:
Appendix................................. page 169
5
Thesis Committee !
page 9
Concept ! !
page 11
!
Terms of Criticism !
page 12
Methods of Inquiry !
page 13
Thesis site of East Point, Nahant, MA
part one...
Spring 2011 - Fall 2012
Introduction Shown in this section is essential information pertaining to my Thesis from its inception to the final stages; Thesis Committee, Concept, Terms of Criticism, and Methods of Inquiry.
7
WEATHERING MATERIALS Shown at the beginning of each section of this document, a brief description of how selected materials weather will shed light on some of the research found in the process of this Thesis.
BRICK A common cladding material in New England, brick tends to weather by absorbing moisture and releasing salt, resulting in efflorescence.
8
Thesis Committee
Thesis Advisor: !
!
Chip Piatti
Thesis Representative: ! Cynie Linton Design Critic: !
!
Jeffrey Hernon
Expert Consultant:!!
Lynne Spencer
Client: !
Sarah Phenix
!
!
Structural Engineer: !
Amir Mesgar
Mechanical Engineer: ! Bruce MacRitchie Director of Thesis: !
Ian Taberner
Thesis Coordinator: !
Thor Sanstad
9
In buildings there is evidence of weathering from: 1. changes in climate 2. the human interaction 3. changes in human activity 4. changes in style or fashion
Villa Savoye - c. 1928
Villa Savoye - c. 1990 after restoration
10
Concept The Concept is the basis for my thesis exploration.
There is this problem:
• Contemporary architecture only designs for the present.
• Today’s architecture should design for the life cycle of the building with evidence of the past and direction for its future.
• Can a Marine Science Center be designed and constructed to take advantage of changing weather conditions, changing human use, changing human interaction, and changing style?
See Conclusions section for the final analysis...
11
Terms of Criticism Terms of Criticism are metrics by which a thesis is assessed. Shown below are the 11 Terms of Criticism by which my Thesis Project has been weighed throughout the process. They were defined by myself from the beginning of this exploration.
The design should... 1.
have an adaptable program
2.
use materials to its advantage
3.
have a sense of contrast between the aging materials
4.
have an appropriate correlation to the site context.
5.
use local materials if possible
6.
be comfortable for people to inhabit
7.
be respectful of the site’s history The design should not...
12
1.
simply deteriorate
2.
dispose of materials in the life cycle
3.
require unnecessary maintenance
4.
detract from the community it serves
Methods of Inquiry Method of Inquiry are ways in which I went about qualifying and quantifying my thesis inquiry. By performing the following tasks I hoped to give clarity to study. The outcomes of each are summarized in the conclusion.
1.
Investigate materials related to specific climates
2.
Study precedent buildings over time
3.
Research climate effects on materials
4.
Study self-protective building materials Determine motives for choosing building materials
5.
Research the climatic effects and historical / contextual
6.
changes on the buildings in site community
7.
Conduct user and client interviews as well as demographic studies
8.
Investigate academic research facilities to determine program required
13
Summary & Overview
WOOD Milled lumber shown before and after the process of weathering.
page 17
part two...
Spring 2011
Thesis Seminar &
Thesis Studio Where it all started. This semester began my defining the identity and parameters of the thesis, exploring the concept, determining the feasibility, and assembling the committee.
15
material behavior typologies Slice / Bisect
site
Bend / Fold
Charles River
ay
Boston Un
Compress
iversity Bri
R
dge
d
ne
do
an
Ab
w ail
Pedestrian / Biking Path
Soldiers Fiel
d Road
Proposed Site sa
ch
BU Student Activities Center
us
et
ts
Tu r
np
ike
(I-
ity Road
Stretch / Elongate
as
90
)
Univers
M
Break Apart Common
wealth Av
Form / Shape
16
enue
Summary & Overview What was studied and produced: The genesis of my thesis emerged from my observation that buildings weather over time. I have always been intrigued by the way a work of architecture is always in motion from the time it is designed, constructed and erected, to the day that it is reduced to shambles. The problem I have discovered in our day and age is that Buildings used to be built to last through the use of tough materials and classic design. But now it seams buildings are designed for the present with trendy details and styles such as Retro or Avant Garde methods. Buildings of today are designed with shoddy materials and by shoddy construction. Designers have not concept of changing use and insufficient consideration of human use. Buildings used to reflect context, history and the user experience. Architecture should create environments and buildings which consider weathering, changes in materials, and human behavior as factors in their design and construction. This was my exploration at the end of Thesis Seminar & Studio. The execution of this study was to study materials and tectonics to determine which methods of construction best represent the longevity and conversely, the ephemerality of construction types. Even thought my Program and Site changed after this semester, the basis for my thesis remained true and consistent. [images shown on opposing page] the study models on top show unique construction types that use materials in interesting ways. The model shown in the center is an interpretation of an inhabitable space built within the MIT Media Lab by Fumihiko Maki. Weathering being experiential, I chose to create a curved path with a glass ceiling above. The Site shown opposite is a site adjacent to the Boston University Bridge. I chose this original site because of its dynamism due to the convergence of many paths. The lack of reference to my thesis topic was cause for my subsequent change in site. Note: For the Thesis Proposal, see Appendix.
17
Overview
page
Site Analysis!
!
!
!
page 23
Program Precedent Studies !!
page 39
Client & Users ! !
!
page 51
!
page 53
!
Summary & Conclusions!
21
COPPER Either induced by verdigris or by the aging process, copper will naturally patina.
[above] polished copper vs. copper patina
part three...
Presented: September 28, 2011
Introductory Review Presenting an introduction to the concept, terms of criticism, methods of inquiry, existing site, and precedent studies. Intentionally, no design was yet to be explored.
19
ive
Lynn
e or
nn
Dr
Sh
Ly
ay
nw
n Ly
Nahant Bay
Little Nahant
Broad Sound
Short Beach
Big
Nahant
Nah
ant
Roa
d
Northeastern University Marine Science Center “East Point�
Nahant Harbor SITE
[above] Directions to and from East Point, Nahant, by land. 20
Overview Review Attendees: Chip Piatti
Thesis Advisor
Cynie Linton
Jeff Hernon
Design Critic
Thesis Representative
Mark Cullinan
Nahant Town Administrator
Alex Siekerski
Fellow Student & Colleague
Chris Crump
Fellow Student
Being the first of my reviews, I wanted to present the scope of my project based on my concept and findings I have surmounted until this point. The Thesis Handbook asks of us to give an overall account of our project, showing our Thesis Statement, Thesis Question, Methods of Inquiry, Terms of Criticism, Program and Site. The Introductory Review was to me, essentially setting the stage for the reviews to come. This evening was the opportunity for me to calibrate my project to particular interests of reviewers and get a sense for what they are looking for. The question to be addressed is: Can a Marine Science Center be
designed and constructed to take advantage of changing weather conditions, changing human use, changing human interaction, and changing style? What was presented:
Concept:
Site: East Point, Nahant, MA
Program: Marine Science Center
Client:
Weathering
The Northeastern University College of Biology & Marine Science
21
1. Entry Gate to Marine Science Center 2. John B. Murphy Battery Main Entry
3. Curved path approaching war memorial 4. Gunning Station at Pulpit Rock
5. Murphy Battery from War Memorial
6. View northeast looking at War Memorial
7. View looking beyond to Castle Rock
8. View looking beyond to Egg Rock
22
Site Analysis Approach Sequence - All of East Point, Nahant, MA
EAST POINT - NAHANT, MA
1 8 2
7
PROPOSED SITE
5
6
3
4
When approaching the site, the directions of ones line of sight changes. The tangential views from the road focus ones attention directly in front. The site’s curving pathways changes the views as one explores the site.
23
1. Looking at Ice Hut
2.
Boat Stored near MSC
3. Fenced are next to dirt road near MSC 4. Steep pathway adjacent to site
5. Looking toward shore at small structure 6. View looking toward Observation Station
7. View looking toward Great Ledge
24
8. View looking from Great Ledge toward site
Site Analysis
Approach Sequence -Partial view of East Point, Nahant, MA
, MA 1
2
3 4 5
PROPOSED SITE 6
7 8
[above] Photo Key Plan
25
1
2
3
4
West
West
Northwest
North
5
Northeast
6
Northeast
[above] Sections of East Point, Nahant
Height Range from High to Low Tide Water levels on Nahant’s shores can range 11.1 feet between high & low tide.
Panoramic View from Center of Site Shown above, the rocky shores of East Point are also mixed with pebbled beaches. Beyond the retaining wall there is rich vegetation.
26
Site Analysis Land / Water Interaction & Topography -40 ft.
40 ft. -30 ft.
30 ft. 20 ft.
-20 ft. -10 ft.
10 ft. 0 ft. 40 ft. 60 ft. 30 ft.
30 ft.
50 ft.
40 ft.
N
1000 ft.
Topographical Contour Map
2 3
1
4
5
6 N 500 feet Scale: 1” = 500’
100 feet
Key Plan - The section lines in the site plan correlate to the site sections shown on the opposite page. 27
Locus Map of Nahant Melrose Swampscott Lynn Saugus Nahant Bay
Malden
Nahant Everett
Revere Broad Sound
Chelsea Somerville Atlantic Ocean
Winthrop East Boston Cambridge Boston
Boston Harbor South Boston Roxbury
Harbor Islands
Dorchester
Qiuncy Bay North Quincy
The tethered island of Nahant is 14 miles northeast of Boston Proper
28
Massachusetts Bay
Site Analysis Geography & Zones of Nahant, MA.
Zone R2 being low density represents the more affluent area of Nahant.
Cities Nearby Nahant, Massachusetts:
Swampscott Town, Massachusetts 3.5 Miles Winthrop Town, Massachusetts 4.5 Miles Hanson Town, Massachusetts 5.0 Miles Salem City, Massachusetts 6.4 Miles Peabody City, Massachusetts 7.6 Miles East Bridgewater Town, Massachusetts 9.1 Miles Somerville City, Massachusetts 9.3 Miles Hull Town, Massachusetts 10.1 Miles Winchester Town, Massachusetts 11.1 Miles Reading Town, Massachusetts 11.5 Miles 29
Pa th
n Su
30
Site Analysis Sun & Wind Diagrams
Summer Solstice (December 21)
8 a.m.
Noon
4 p.m.
8 a.m.
Noon
4 p.m.
8 a.m.
Noon
4 p.m.
Spring & Fall Equinox (March & September 21)
Winter Solstice (June 21)
The Sun Path indicates the shadow cast from a 2 story building on the site.
31
people vehicles
seaguls
Island of Nahant East Point
Miffin’s (Hood’s) Point
Bass Fortysteps Beach
Na
ha
nt
Egg Rock
Cedar Point Ro
ad
Cl
iff
Str
ee
t
Castle Rock
10 MI TE
NU
Bennett’s Head
D RA LK WA FEET
00
1,6
Canoe Beach
East Point
IO
no
US
r Ve n
5M
et
re ST
Nahant Head
Henry Cabot Lodge Battery 104
RAD ALK TE W O FEET
INU
Battery Murphy
w Sw
allo
Natural Bridge
S
Northeastern University Marine Science Center
IOU
Ca ve
Ro
ad
8O
Joseph’s Beach
Pulpit Rock
Battery 206 500 feet
Great Ledge Observation Station 1A Shallow’s Cave
Scale: 1” = 100’
100 feet
Legend
Observation Station 2A
Vegetation Rocky Cliffs
Pea Island
Sandy Beaches N
NAHANT HARBOR Shag Rocks
ATLANTIC OCEAN
32
Site Analysis Sounds & Pedestrian Access to and from Site [opposite - top] There is an acoustical aspect to being on the site. This drawing shows an emotional response to standing and experiencing East Point. [opposite - bottom] In order to give scale to the site, this diagram shows 5 & 10 minute walking radii. [below] Public transportation is about a 20 minute walk from the site.
3 miles = 10 minute bus ride
3/4 miles = 20 minute walk
MBTA Bus Route 439 Map found on MBTA.com web site, 2011
33
Nahant Hotel c. 1825
Maolis Gardens
c. 1907
c. 1910
Military & Defense History in Nahant In the World War 2, Nahant was used as a Harbor Defense Station in the event of an air attack. At one point East Point, with its many batteries, was one of the most heavily armed stations in the entire Harbor Defense System. In the Cold War, from 1952 to 1956, East Point had anti-aircraft gunning stations and missile launches
Bunker location in East Point
. 34
Site Analysis Historical & Cultural Context of Nahant Coast Guard Station
Tides Restaurant
St Thomas Aquinas Church Greenlawn Cemetery
Post OďŹƒce Fourtysteps Beach
Fire Station
Johnson School Town Hall Historical Society
Kelley Greens Golf Course
Village Church Marine Science Center
Nahant Harbor
Tudor Wharf
Nahant Architecture In Nahant the architecture is in a range of style from colonial to mid-century modern. In the town of Nahant there are mostly wood-framed structures, but also there are several instances of masonry and steel. 35
e
iv r D re o S h nn
Extended Context of Nahant
Ly
Lynn King’s Beach
Lyn n
wa
NahantR oa
d
y
Long Beach
Lynn Harbor
Sand Point Long Beach
LittleN ahant
Black Rock Point
et
t re e
t
re e
an t
er
Pl
ea s
m m
St
St
et tre
Ca ve R Nah
ant
Bennett’s Head Canoe Beach
Bailey’s Hill
Bass Rock
Joseph’s Beach
Road
Swallows Cave
4000f eet
Natural Bridge Pulpit Rock Pea Island
SITE Shag Rocks
5000f eet The Spindle
d
Great Ledge
1M ile 3000f eet
oa R
Northeastern University Marine Science Center “East Point”
Pilot Boat Roseway
untain
Cove
Nahant Harbor
Trimo
Way Colby rrace Hill Te Breezy y Road Spinn Way Irving ue w Aven Sea Vie Road Point Bass
Lewis Cove Bass P Point Bass Point
2000f eet
Castle Rock
Pond Beach
Reed Cove Bailey’s Hill Park ark
Scale: 1” = 430’
Marjoram Park
all
Bear Pond
Sw
Pea e venu le A Map nue Ave rman Road ge Ran
Mifflins Point Fortysteps Beach
oa d
re e Tudor Beach Dorthy’s Cove
ow
Kelly Green Golf Course
Cl
iff
St
Saunders Ledge
She
36
Spouting Horn
Nahant N Na an nt
t
ox Hill Fox
Westrl RCliff oad
1000f eet
Stony Beach
Black Mine Greenlawn Greenl ee Cemetery C emetery ry
Johnson Beach
N
Egg Rock Sancturary
tre
Pool of Maolis
Lowlands Park
Black Rock Beach
er S
Oc
Po North Spring
Maolis Gardens
Lobster Rocks
nS
St nd
gh Hi John’s Peril
Su
L
US Coast Guard Station
int
it
Na
W
tle
Short Beach
n
ha
BroadS ound
St
ad
Tidal Bay
o tR
re e
re e
t
t
NahantB ay
ea
W
Tidal Flat
Sea Wall
ad o tR han
Na
oad ilson R
ATLANTIC OCEAN
Site Analysis Historical & Cultural Context of Nahant There are several major and minor axes on the Nahant Peninsula. The creation of this map helped me to analyze the various patterns and logic to the greater site. Nahant Road is the major road, both to and through the island. The manmade causeway stretches from Lynn, Massachusetts to Little Nahant, then Nahant itself. The minor axes in Central Nahant; High Street, Pond Street, Ocean Street, etc, are roads that lay parallel to one another, not by coincidence. From what Mark Cullinan, the Town Administrator for Nahant disclosed, these roads represent the boundaries of land parcels divided for the grazing of cattle back in the 1800’s. The minor axes of Bass Point, in the southwest corner of the island, show an increased density and tighter community. After studying the map for a little while, it is easy to make sense of the neighborhoods, zones and districts just by observing the street pattern.
37
Indirect Daylight Direct Southern Sun
CIRCULATION (PLAN)
NATURAL LIGHT (SECTION)
UNIT TO WHOLE (PLAN)
Laboratory and Work Space
2496 sf.
40 %
8,000 sf.
Educational Space (Classroom & Library)
1410 sf.
22 %
4,400 sf.
Miscellaneous (Storage & Janitorial)
384 sf.
6%
1,200 sf.
Display & Shop Space
768 sf.
13 %
2,600 sf.
Circulation Space
1232 sf.
20 %
4,000 sf.
TOTAL
6290 sf.
100 %
20,000 sf.
Unassignable
800 sf.
Assignable
192 sf.
192 sf.
192 sf.
1025 sf.
192 sf.
Circulation Space
576 sf. Laboratory and Work Space
192 sf.
192 sf.
Display & Shop Space 82 sf. 110 sf.
192 sf.
192 sf.
432 sf.
192 sf. Misc.
30 sf. 210 sf.
192 sf.
192 sf.
Educational Space
385 sf. 94 sf.
50 sf.
192 sf.
192 sf.
SCALE: 1/16” = 1’ - 0”
BUILDING EFFICIENCY FACTOR = NET / GROSS = 16,000 sf / 20,000 sf =
38
80%
Program Precedent Studies Scrips Biological Laboratory Spacial Components I used the Scrips Biological Laboratory as a space planning precedent because of its simplicity and clearly defined spaces. Name of the project:
Scrips Institution of Oceanography’s George H. Scrips Memorial Marine Biological Laboratory
Owner: Location: Architect: Construction Dates: Cost: Building Type: Construction System: Climate: Context: Style: Cost: Address:
California University at San Diego La Jolla, CA (San Diego County) Irving Gill (1870 - 1936) 1909 - 1910 $15,800 Laboratory Concrete Tropical Oceanside Modern $15,800 8622 Discovery Way La Jolla, CA USA 92037
Notes: University of California, San Diego. The training ground for pioneer oceanographers. On the U.S. National Register of Historic Places. Oldest building on the UCSD campus.
39
!
!
!
!
!
!
!
!
40
!
!
!
!
!
!
Program Precedent Studies Student Health & Wellness Center at UC Davis, CA Client: ! ! ! Location:! ! ! Architect:! ! ! General Contractor:!! Square Footage: ! ! Opened:! ! ! Cost:! ! ! ! Award:! ! !
California University at Davis (Developer & Owner) Davis, CA (Near Sacramento, CA) WRNS Studio LLP, San Francisco McCarthy Building Cos. Inc., San Francisco 77,000 (43,000 assignable) (Three story building) March 29, 2010 $35 million 2010 Award of Merit for Higher Education
Description: a comprehensive facility focused on programs for the modern student. Mission: to provide campus health and wellness resources that enable students to successfully achieve their academic goals and promote lifelong wellness. Goal: Replaced the Cowell Student Health Center due to enrollment demands, improve accessibility, and support students’ academic successes. Sustainability / Performance: !
Designed per UC Davis Greenbuilding Guidelines and is seeking LEED Gold.
! ! ! !
Sustainable Design categories targeted: ! water & energy efficiency, ! ! materials usage, and ! environmental quality.
!
Exceeds Title 24 energy efficiency requirements by at least 35%.
! !
Green roof containing vegetation to absorb harmful UV rays and reduce reflectance.
! !
Environmentally friendly mechanical system consisting of chilled beams reducing the need for air conditioning.
!
Recycled and earth-friendly building materials,
! !
A Wellness Garden: constructed to promote recovery and peace in a natural outdoor setting.
! !
Daylighting: South facing wall is mostly stucco, whereas the north facade is mostly curtain wall. 41
As a first pass at a material study, I looked at the fabric canopies in today’s architecture. I learned that even thought fabric seams to last a short while, these architectural applications allow for a canopy to last for up to 25 years. I had not taken it further by designing with it, but it might be a fruitful study in the future.
42
Material Precedents Fabric Architecture
43
44
Program Precedents Hatfield Marine Science Center
Location: Yaquina Bay in Newport. Oregon Established: 1965 History and Background: The HMSC is marine laboratory for Oregon State University (OSU). The center is home to OSU researchers, students, and faculty from five colleges at the university and more than ten departments. Contributing Federal and State Agencies: On-site partners involved in the research and management of the marine environment, include: ! the U.S. Fish and Wildlife Service, ! the Environmental Protection Agency, ! the Oregon Department of Fish and Wildlife, ! the U.S. Department of Agriculture, and ! the National Oceanic Atmospheric Administration (NOAA). How this campus influences my project: The scale of the site is much larger than most precedents I have found. There is a wide range of activities conducted at HMSC. There is a significant effort of HMSC to contribute to the local community and the public at large. Besides having the primary function of a higher education facility, there are also summer programs, career-building workshops, theme-based festivals, educational tours. The public is invited to the visitor center with its event space and interactive exhibits dedicated to the understanding and disseminating information about global issues dealing with marine culture. One interesting type of research conducted at HMSC is the wave energy testing. The lab is used to study the effects of tsunamis and earthquakes on marine life.
45
46
Program Precedents Port Townsend Marine Science Center
Location: Fort Worden State Park, in the city of Port Townsend, Washington. Founded: 1982 Background: The PTMSC was founded by two teachers and was initially run by volunteers. Since then it has continued to grow in a steadily and its volunteers, now numbering more than 100. The Port Townsend Marine Science Center For me, this precedent fulfills the possibility for a marine biological facility to extend into the ocean instead of inhabiting the land. The program for this building structure is quite small compared to other precedents, but the extension of the doc directly into the ocean shows a commitment to first hand observation and study of the local marine life. Major Programatic elements: ! Family oriented educational spaces ! Exhibit Space for visitors and marine-life enthusiasts ! Boat dock ! Nearby Natural History Museum with shared classrooms and restrooms.
47
48
Program Precedents Roger Williams Marine and Natural Sciences Building Location: Bristol, RI Client: Roger Williams University Architects: GLAS Architects KPFF Consulting Engineers Completion Date: November 2010 Important Info: In Fall of 2010, Roger Williams University and its Marine Science Facilities opened its expanded and renovated Marine and Natural Sciences Building which featured a new Shellfish Hatchery and an Aquatic Diagnostic Laboratory Shellfish Hatchery and an Aquatic Diagnostic Laboratory. According to members of the Marine Biology Program, the building is a Work in Progress because it changes in response to conditions. The facility was expanded to “generate new knowledge and techniques to reinvigorate Rhode Island’s native shellfish populations and to advance the understanding of marine ornamental aquaculture as a foundation for potential economic benefits in the region.”In building onto the existing facility, the goal of Roger Williams University was to establish a prominent role in Rhode Island’s effort to become a recognized leader in the development of sustainable, ecological aquaculture. In Rhode Island, there have been efforts to rejuvenate the state’s shellfish population after years of decline due to disease and polluted waters. The Aquatic Diagnostic Laboratory now offers space for disease testing and treatment of aquatic animals. This is due to a growing need for disease screening, diagnostic services and treatment options. Wetlab: Located on the ground floor of the Marine and Natural Sciences Building is the Marine Biology Wetlab, a 3000 square foot research space housing many undergraduate and faculty research projects, as well as most of the RWU aquaculture projects. The wet lab features flowing sea water, pumped directly from Mt. Hope Bay, and offers many workstudy opportunities to RWU students.
49
Lynne Spencer
Mark Cullinan
DESIGN COMMUNITY
GOV’NMNT
HISTORICAL SOCIETY
Friends & Colleagues
Sarah Risher
NAHANT
Ryan Myers
VACATIONERS
Joe Ayers
Geoffrey Trussell Sarah Phenix
NORTHEASTERN UNIVERSITY James Brand
Mark Cullinan Town Administrator & Town Engineer Sarah Risher Resident Lynne Spencer Preservation Architect, Resident, President: Nahant Historical Commission Geoffrey Trussell Director of the Northeastern Marine Science Center Joseph Ayers Professor of Biology at Northeastern Ryan Myers Biology Student at the Northeastern Gwilym Jones Professor of Biology at Northeastern Heather Sears Administrative Officer at Northeastern Steve Vollmer Assistant Professor of Biology at Northeastern James Brand Director of Planning at Northestern Sarah Phenix Laboratory Manager at Northeastern MSC
50
Client & Users Up to this point, the community of people I have spoken with is small, but yet has informed my thinking of the social aspect of building something on the East Point of Nahant. At present, the existing Marine Science Center is undergoing changes on its own volition that aim to increase the size of their laboratory space and expand it’s center for research. My project is meant to work in tandem with the Edwards Laboratory as it exists today. Other outside sources that are not affiliated with Northeastern University helped me understand more about Nahant; professionals such as Mark Cullinan, Lynne Spencer, and Sarah Risher. My interview with Mark Cullinan helped me understand the zoning and architectural typologies around the town. He has a keene understanding of the social culture of the island and how something goes about getting built. Lynne Spencer is not only a town resident, but she also works on architectural preservation projects around Nahant and other parts of New England. Lastly, she is the president of the Historical Society for Nahant, so being able to speak with her was an enlightening experience. When I met her at her office of Menders Torrey Spencer, I was able to get her feedback about my approach and a bit of knowledge about the history of East Point. Sarah Risher is a town resident who uses East Point as a scenic vista to walk though on a common basis. I asked her what she liked most about the site and she said there is one spot near my proposed site that she likes to sit on a bench and overlook the scenery. This later became the basis for preserving that view she treasured.
51
Notes from Alex Siekerski: 1. Framing a thesis (the thesis idea proposition): We should be designing for longevity in the built environment. Architecture should design for the life-cycle of a building. There are user changes, climatic changes, and social/aesthetic changes that develop over a life cycle. 2. Considering cultural context: The island is primarily residential which means that the residents will be effected by the presence of science. Break down barrier. Bring community in. Review panel evaluation: Study demographics (3500 residents). Military sites. 3. Research component: Adaptability, preservation, non-fixed program. Material research (longevity) - Effects w solution. Analyze northeastern’s current facility on nahant 4. Program analysis and development: Historical lab in california (similar program) Integrate elementary / high school in program 5. Site context analysis and development: Open to elements - how do they detract from a building to weather. Need site context diagram (google earth) Look at context / vernacular, coast line Go to historical society (research geology) 7. Design synthesis: Zoning issues? Floor area ratio 8. Communication and presentation: Be more personal (talk from the heart). Free flow. Stick to large idea and always explain why. Blow up boards/ images. Use the whole room.
52
Summary & Conclusions from the Introductory Review Commentary & Criticism:
Design: Positioning of building considering: Wind, Sun (solar) - geothermal & Water flooding. Setbacks: Understand how setbacks affect presence of building. Program: 20,000 sf. small? - is it an addition? Remodel of existing. Think of program for building. Public Destination: Possibly open the campus up to community more by integrating elementary & high school into the program. Maybe talk to nahant teachers about opening up science center to them Need a community connection. Ignore how northeastern secludes itself fro liability. Weathering: Look @ how building reacts to sea + salt air. Don’t worry about how a building looks in 100 years Need to & say why Villa Savoy was abandoned Need wind and weather diagrams? Materials: Look at materials already in Nahant and on Nahant buildings Precedents: We should see lots of precedents. See different precedents for each of your concept ideas of “weathering form” Methods of Inquiry - Can drive your project Existing conditions: What’s there at the site now. What is the Square footage of the existing Marine Science Center. What is their program? What types of things do they do there? What do they need now & in the future?
53
Overview
page
Concept Models! !
!
!
page 59
Precedent Research ! !
!
page 65
Program & User Profiles!
!
page 69
Summary & Conclusions!
!
page 71
STEEL Coreten steel, originally used for railroad tracks, is a self healing material. Â The steel uses the rust from oxidation to create a protective coating to the structural steel beneath.
57
part four...
Presented: November 16, 2011 Date and December 14, 2011
Preliminary Review This review is a presentation of the first responses to our site. Required of us is a presentation of 3 approaches to design that respond to the basic information discovered for the Introductory Review.
55
Site Model - Shown in initial Preliminary Review
Site Model - Shown in Interim Preliminary Review
56
Overview In this first of two Preliminary Reviews I presented my required 3 approaches. At this point, design is very conceptual and abstract. The site and surrounding context is what begins to shape my approaches. Everything that I have understood about Nahant, East Point, Northeastern University, and Marine Science has evolved into these three conceptual models. For me, one step to understanding the site was to build a “Plug and Play� physical site model. The site model shown opposite is my site model based on contours lines I compiled from several Topographical Maps. The 3 models shown in the pages that follow indicate the 3 types of thinking about weathering. But before that thinking was determined, I began to build conceptual study models to further define my approach.
One major criticism from this first Preliminary Review was the fact that I did not show favor to one particular approach. When asked I did not know which of the three would be the best to move forward with.
57
Showing the same person in three locations, these three models show: Change, Perseverance and Experience in 3 distinct ways.
58
Concept Models & Site Apporach Preliminary Review
59
Concept Model 1 of 3
0
50
100
150
200
EXPERIENCE
250
SCALE: 1/32” = 1’-0”
Concept Model 2 of 3
0
50
100
150
200
PERSEVERE
250
SCALE: 1/32” = 1’-0”
Concept Model 3 of 3
0
50
100
150
SCALE: 1/32” = 1’-0”
60
200
250
CHANGE
Models First of Two - Plug & Play Iterations Although unsuccessful in hindsight, the objective to creating these colored "Plug & Play" served as my approach to portioning off Programmatic elements into designated parts of a sketch model. The mistake here was that, in this stage of the Thesis Process, parti models such as these, are meant only to be shapes that respond to site, precedent studies, and concept sketches. Conversely, the use of program and spade designation was best saved for the Schematic Review. In my creating these three study models, my thinking was that these were abstract representations of buildings, but in this stage, they clearly missed the mark. Concept Model #1 - Experience This model followed the curves of the site and maximized the footprint. Concept Model #2 - Persevere This model was a response to the natural ridge bisecting the site. The two symmetrical masses connected by a central connector, are rigid in their shape and linear lines, but use lines parallel and perpendicular the the slope to arrive at a natural response to the site. Concept Model #3 - Change Because the slope of the sight is severe, a terracing of the forms is one approach to maintaining a low profile along the ridge near the shore. In this approach, the footprint of the form would not be overly invasive on the site and preserve the natural slope without extensive excavation. Concept Models - SECTIONS
EXPERIENCE
PERSEVERE
CHANGE 0
50
100
150
200
250
SCALE: 1/48” = 1’-0”
61
MAP OF MARINE SCIENCE PRECEDENT LOCATIONS NORTH AMERICA
HATFIELD MSC PORT TOWNSEND UMASS BOSTON WOODS HOLE WRIGLEY MSC
ROGER WILLIAMS U.
SCRIPPS INSTITUTE
HATFIELD MARINE SCIENCE CENTER NEWPORT, OREGON
Research here was surface level, but helpful in showing the many scales and configuration of other Marine Science Centers in the United States. 62
Precedent Research U.S. Marine Science Centers From Above MARINE BIOLOGICAL LABORATORIES WOODS HOLE, MASSACHUSETTS
PORT TOWNSEND MARINE SCIENCE CENTER PORT TOWNSEND, WASHINGTON
63
SCRIPPS INSTITUTION OF OCEANOGRAPHY LA JOLLA, CALIFORNIA
ROGER WILLIAMS UNIVERSITY MARINE & NATURAL SCIENCES BRISTOL, RHODE ISLAND
64
Precedent Research Continued UMASS MARINE SCIENCE CENTER DORCHESTER, MASSACHUSETTS
WRIGLEY MARINE SCIENCE CENTER CATALINA, CALIFORNIA
65
Students -
The majority of the facility is used by graduate and PhD Students of the Northeastern Marine Science Program. They have unlimited access to these laboratories at all hours, but the classes are typically from 8 a.m. to 3 p.m. 3 p.m.
Faculty -
8 a.m.
... 5 p.m.
Staff -
7 a.m.
...
5 p.m.
Visitors -
8 a.m.
... 8 p.m.
10 a.m.
Residents -
...
4 p.m. 10 a.m.
Overall -
Midnight
...
6 p.m.
6 a.m.
Noon
The diagrams above show times of day that occupants would be using the building. 66
Program & User Profiles Gloria Thompson -a recent graduate from the North Shore Community College, Gloria discovered her local Marine Science center in Nahant after taking a tour of it. She applied to the Graduate School in order to research and study the Marine Culture around the world. With NUMSC and the 3 Seas Program, she will be exposed to a variety of facilities customized for their local sea life. The new MSC building will provide her with the space an resources not found in many Higher Education Facilities. Dr. Lionel Tate - Esteemed professor and prize winning researcher, Tate has been recruited from Hatfield MSC to conduct research and to instruct a Graduate Seminar & Lecture course on the effects of tidal patterns on the shellfish species migration In New England. He was attracted to the NUMSC's commitment to community involvement and excellence in research. with the new Live Animal Lab, Dr. Tate can conduct his research under controlled environments year round. Jonny Summers - spending his summer break away from home in New England, 5th grader, Jonny and his friend look for Summer Camps to satisfy their curiosity of the natural sciences. They find a summer camp at Nahant that provides a 2-week educational excursion where young elementary students learn about geology, local ecology and take a day long excursion in the sea vessel. The camp is a day and night camp with food provided, so Jimmy's parents don't have to worry about any logistics or arrangements. Jeremy Wilco - Because Jeremy is a handicapped Boston area resided, he has limited access to areas near any bodies of water. Because of his interest in marine life he finds Nahant's MSC to be the ideal local for his sight seeing, lecture attending and bringing his friends to we the latest exhibit. The ADA compliant landscape and buildings are ideal for all adventurous types and that is what keeps Jeremy coming back. Shannon Wiseman - As a Nahant native, Shannon has been actively involved in the community for over 40 years. The pride she has for her neighborhood is unsurpassed and uncompromising. She is typically concerned about any new construction in Nahant for fear that it might disagree with the local vernacular. With her help and guidance, the newMSC is well integrated into the local landscape and community culture. The scale and aesthetic fit well in the local atmosphere thanks to her relationship to designers of previous projects on the island. She now frequents the site on her daily walk around east point with friends.
PROGRAM USE DIAGRAM Classrooms
5000
Laboratory Space
4000
Endangered Animal Clinic
na
Injured Animal (Medical Suite)
na
Educational Spaces
Live animal areas
Live Animal Habitat
4000
Percentage Pie Chart
na
Administration Offices
1500
Faculty Offices
2500 Office
Parking
na
Boat Dock
na
Lobby
1200
Seminar Space
1500
Event Space / Lectures
2000
Library (digital books)
2000
Janitor Closets
150
Hydroelectric Power
300
Toilet Rooms
400
TOTAL
5000
4000
4% 10%
24%
23% 19% Public Spaces
4700
Research
2000
Utilities
850
19%
Educational Spaces Public Spaces
Live animal areas Research
Office Utilities
20550
67
Questions asked: What does Northeastern University MSC study? Sense of welcoming: Edwards Lab (on site) is not very welcoming. New approaches might augment that fact. Response to site: severe slope needs response Design: Weathering should show many exposed surfaces Engaging the water is a good thing. Show that. Response to Intro Review: ! Graphics shown much larger Missing from Presentation: ! These maps are missing a bunch of roads ! Entrance to bunkers are not in site model ! All existing conditions should be shown on the site and not simply mentioned. ! Site does not have trees. Vocabulary: ! It is wrong to call these models spaces. ! They are more forms, responses and approaches. Criticism: Need to know which scheme to pursue if you have not been inclined to choose a favorite. Models are too 2-dimensional. Show more process & hand sketches 7. Are you proposing parking? ! “I’m proposing an arrival sequence” ! So - you need a story “no more cars” ! or everyone takes the shuttle ! I don’t care what the story is, but you need one! Not a strong connection between the names of the schemes and their concept. Look at each one of them - reworking to take advantage of the special feature of each Pie chart is not helpful
68
Summary & Conclusions From first Preliminary Review Think of gestures and uses - developmental drawings You must explain what the meaning of a form is and how it embodies the aspect of a definition You just need to write it out / talk it out / perhaps use bullet points. Say - I’ve done this + this + this + this is where I’m going And - if you have a favorite - argue about it. “We can argue about it, but you’ll win” Have each space address the needs of the user. Profiles: what do people need in their space? Boat Taxi from Boston. Make a stop. Don't care what the story is, but there needs to be one. What is the connection to the "Special Feature"? Define the words for each concept Possibly backtrack to a bubble diagram to show adjacencies "Do your favorite scheme and make the opposite of it". The antithesis My Mantra: "How does this relate to weathering?". Keep in the back of your mind at all times. Visit precedents: Roger Williams. Aquarium. Live animal Surgery at aquarium. Possibly Tufts veterinary school. Exotic animals. Lapascotic surgery. Key words: Developed, Resulted, Responded. Collage the spaces. Cynie felt that there was not enough of a direction
69
Categories of Weathering: Change - adapt, transform, warp, realize, mature, deteriorate.
Persevere - remain, hold strong, withstand, resist.
Experience - observe, take part, engage, study, involve, submit to, to envelop.
70
Interim Preliminary Review Overview Because the previous Preliminary Review left many items unresolved there were several things I addressed at this point in the process. 1. The three types of weathering shown on the opposite page are defined in my own terms in a written form. 2. I went about looking at the different user groups more thoroughly. 3. I looking into more material precedents than just “Fabric Architecture� 4. My site analysis showed everything on the site plans, including the location of the bunkers. 5. The new approaches were more defined by shape than color. The definition of each was better refined based on a concept. 6. I began to think about each of my 3 new approaches as one that I might favor in further design processes. 7. The physical models completely lacked color to let the overall shape shine though. 8. I produced many vignettes to show that I was thinking about the design from a user’s standpoint.
71
Material Precedents
Marta Herford Museum Herford, Germany Frank Gehry - Architect
Prefectoral Art Museum Hyogo, Japan Tadao Ando - Architect
John Deere Corporate Headquarters Moine, Illinois Eero Saarinen - Architect
72
Space & Site Use
Exploring
Field work
Research
Experiencing
Interacting
Teaching / Learning
Arriving
73
Site Analysis
Edge Conditions of East Point
Zonal Qualities of East Point
Zonal Qualities of East Point Site Underground Bunkers of East Point Site
Natural Axes of East Point Site with User Diagram Overlay
74
Holocaust Musem Berlin, Germany Daniel Libeskind - Architect
Heinz Galinski School Berlin, Germany Zvi Hecker - Architect Chasible
Prefectoral Art Museum Hyogo, Japan Tadao Ando - Architect
75
Approach “A” Model
Approach “B” Model
Approach “C” Model 76
Models Second of Two - Plug & Play Iterations
Interim Preliminary Models - The next iterations of study models for the Preliminary review brought the models back to the fundamentals of the review intent: to capture a physical design response to the site. The previous models had color to show program, but these study models did not have color so that the clarity of the design shown threw. Approach A - Zig-Zag - The back and forth of this shape was conducive to showing experience to a user from the circulation path. Approach B - The 3-prong design dealt with change in shape through changing the site lines to adapt to the existing conditions. Approach C - Similar to Tadao Ando’s Prefectoral Art Museum in Hyogo Japan, this design was built with strong geometry to have the stature of a fort.
77
Approach Axonometric view
Approach A
Approach B
Approach C 78
Approach A
View 1
View 2
View 3
View 4 79
Approach B
80
View 1
View 4
View 5
View 6
Approach C
View 1
View 4
View 3
View 6 81
Photo of myself at the Interim Preliminary Review
82
Summary & Conclusions For the Preliminary Reviews After this review was finished, there were several things I needed to focus on for the Schematic Review. For one, I needed a larger site model from which to work. Having the 1/32nd scale model was excellent for Plug & Play models, but for a detailed scheme, the model needed to be at least 1/16th scale. The program was not to be packed into the building but rather informed by the user’s experience. I was once again encouraged to visit more precedents than just the Marine Science Center in Nahant, so Chip and I planned to make the trip in the future. There was a request to study the types of equipment used in these facilities to have a sense of the size and scale of the rooms. For Schematic the scale of buildings on site needed to be addressed. The question was asked if 20,000 sf be too small. The answer was likely yes.
83
Overview
Side by Side Comparison!
page !
87 page 88
Use, Program & Path Diagrams!
page 89
Gestural Concept Model!
!
page 90
Sun Path Diagrams!
!
!
page 91
Site Analysis!
!
!
!
page 92
Sections!
!
!
!
page 93
Photomontages! !
!
!
page 95
Physical Model! !
!
!
page 97
Energy Sources! !
!
!
page 99
Plans!!
!
!
!
!
!
page 100
Vignettes! !
!
!
!
page 108
!
page 113
Summary & Conclusions!
CONCRETE A highly durable exterior surface weathers from the inside once the steel reinforcing is compromised.
part five...
Presented: January 15, 2012
Schematic Review Asking the question; “Can this be a building?� is the correct state of mind for this review. This review represents the midpoint between the Introduction of this Thesis Project and the Final Review.
85
86
Overview Review Attendees: Chip Piatti
Thesis Advisor
Cynie Linton
Jeff Hernon
Design Critic
Rob Ortiz
Fellow Student & Colleague
Thesis Representative
Rodney Cudmore Fellow Student
Schematic Review required me to present one scheme based on the successes of the Preliminary Review Schemes. Because of my favoritism to the Approach C in my Interim Schematic review, my Schematic Design approach borrowed from this particular approach at a starting point. The analysis and contrast of Approach C and B was critical to determining positives and negatives between each. On this page, my analysis of Approach C shows the zig zag nature of the circulation path, the three distinct axes shown almost in 60 degree difference from one another. From this comparison contrast exercise I was able to produce a design that took elements of each and began to input general programatic elements. Each color depicts one of six Program Groups. In the Legend, you can see that Red stands for Public Aquarium Exhibit Space, and so on. The question asked in Schematic Design is can this collection of shapes and adjacencies be a building? After infusing the shapes with programmatic elements, this Schematic Design could evolve into a building. I executed many studies for this review to inform my thinking of this design as a potential building. Required of me was thought about circulation, exterior views, sources of energy, and furthering of my concept.
87
Side by Side Comparison COMPARISON OF APPROACHES B & C
This process was key in determining what direction I needed to go for the next iteration of the design. 88
Use, Program & Path Diagrams USES, PROGRAM & PATH DIAGRAMS
MISCELLANEOUS CIRCULATION, RESTROOMS, MECHANICAL AREAS & CLOSETS PUBLIC AREAS: AQUARIUM, EXHIBIT & MERCHANDISE RESEARCH LIBRARY CLASSROOMS OFFICES LIVE ANIMAL AREAS OUTDOOR DOCK
By connecting the Programmed Spaces in this fashion, it was instrumental in being able to visualize the future designs by knowing how the program should be mapped out. 89
GESTURAL CONCEPT MODEL
90
Concept Model & Sun Paths Emotional Response to the Space SUN PATH DIAGRAMS
AXONOMETRIC VIEWS
[above] The sun path diagram simply shows where shadows might fall on the site. [left] This gestural model on the opposite page shows the essence of my future designs. The reaching out of the design shows the prioritization of the views and the engaging of the water. The materials of the triangular elements showed differences in color to depict a possible material change.
91
DESIGN CONSIDERATIONS
PROGRAM BY LEVEL
LEVEL 2
92
LEVEL 1
SECTIONS
SPACE TYPOLOGY INSPIRATIONS
LEVEL 2
LEVEL 1
93
PHOTOMONTAGES 3
4 2
1
1
2 3
4 94
Photomontages Emotional Depictions of Space The photomontages shown here are of both interior and exterior portions of the design. By overlaying sketches and manipulated photos of the model, the image has an almost dream-like, surreal quality that removes it from reality, but sheds light on the emotional feel for each space.
EXTERIOR PHOTOMONTAGES
1
2 3
1
2
3
95
AREAL PERSPECTIVES 1
2
view 2
view 1
3
96
view 3
4
view 4
Physical Model Showing the Construct from All Angles
The site model showed the terracing effect on the southern side of the building. The lines of the model showed the sharpness of the angles and gestural quality of the shapes.
SITE CONTEXT FOR MODEL
97
MECHANICAL SYSTEMS ANNAPOLIS TIDAL GENERATING STATION
GEOTHERMAL ENERGY 98
Mechanical Systems & Site Plan Site Plan & Building Footprint
99
Public Areas
100
Faculty Spaces
Research Labs
Educational Spaces
Public Areas
Library & Resources
Educational Spaces
101
N
Public Area:
Aquarium, Exhibit Space & Presentation Space Scale: 1/16” = 1’-0” 0
Parking Lot Entrance Display Display Corridor
Coats Presentation Room
Support Space / Storage
Rest Benches
M. W. Live Animal Supply Closet
Information
Display Wall
Display Corridor
Mechanical Space Ramp Up
Cylindrical Aquarium Tank
Display Walls Interactive Live Animal Display
Views to Ocean
102
Display Case
Bridge to Library
5 ft
15 ft
N
Library:
Digital Resources, Books, & Dry Samples. Scale: 1/16” = 1’-0” 0
5 ft
15 ft
Bridge to Aquarium Books & Magazine Stacks
Bridge to Classrooms
Collaborative Space Computer Stations Stairs to Below
Study Area
Dry Sample Cases
103
N
Educational Spaces:
0
Laboratories, Classes & Auditorium
15 ft
5 ft
Scale: 1/16” = 1’-0”
Alcove Alcove
Bridge to Library
Classroom Stairs Dn.
Mech. Classroom
Classroom
Classroom Educational Laboratory Alcove
Access to Rooftop Deck 56 Pefson Auditorium
104
N
Educational Spaces:
Laboratories, Classes & Auditorium Scale: 1/16” = 1’-0” 0
5 ft
15 ft
Storage
s
air
St
130 Person Auditorium
Up
Learning Laboratory
Learning Laboratory
Research Laboratory
Mech. Live Animal Tanks & Support M.
W. “The Landing”
Boat Dock & Tide Pool Observatory
105
N
Public Area:
Aquarium & Exhibit Space Scale: 1/16” = 1’-0” 0
Main Entrance Coats
Information Desk
Ramp Up
Cylindrical Aquarium Tank
Mechanical Space File Storage Display Storage
Daylit Display Wall Display Alcove Outdoor Amphitheater & Observation Area Presentation Space & Outdoor Access Vestibule
106
5 ft
15 ft
N
Offices:
Faculty & Staff Scale: 1/16” = 1’-0” 0
16 Person Conference Room
5 ft
15 ft
Group Office 1 Group Office 2
Group Office 3 Storage
Exit Sm. Conf.
Outdoor Amphitheater & Observation Area
Office
Office
M. Entrance Lounge W. Reception.
107
view 1 view 2
view 3 view 5 view 4
view 6 view 7
Level 1 - View Key & User Path Diagram
View 1 - Exhibit Entry
108
Vignettes
View 2 - Rotunda
View 3 - Faculty Office Suite
109
View 4 - Lecture Auditorium
View 5 - Laboratory Classroom
110
Vignettes
View 6 - “Landing” Lab Entrance
View 7 - Rocky Path 111
View 8 - Library
View 9 - Exhibit Space
112
Summary & Conclusions For the Schematic Review Ideas generated in this review were very helpful. The discussion was a lot more involved with design than with the site conditions that previously had criticisms associated with them. The ideas I presented were well received, but the criticism dealt with graphic problems and a shortcoming in my depth of detail. The gestural model sold the design concept and also borrowed from previous schemes that had successful attributes relating to weathering and user profiles. Vignette Key Plan & User Path Diagram
Graphically, the amount of color used in this review was a bit jarring, so it was asked Level 2 that I tone it down a bit. Also, the Plans only showed where program might go, but there was no full realization of spaces within the rough building proposal.
view 9
view 8
Level 2 - View key plan
113
Overview
page
117
Iteration #1
page
119
Visit to Roger Williams University! page 121 Iteration #2
page
123
Floor Plans
page
124
Elevations
page
128
Mechanical Notes
page
129
Vignettes
page
130
Renderings
page
136
page
143
Summary & Conclusions
GLASS Like concrete, glass is highly resilient to weathering, but the window and curtain wall frames will eventually break down at the seems.
part six...
Presented: April 13, 2012
Design Development Furthering the design of a building, this review takes the successful aspects of the Schematic Review, redesigns the spaces and fine tunes the technical aspects of the design. At this point, the design should be convincing as a building.
115
Conclusions from the Iteration #1 design: Even though the overall design stayed true to the guidelines I set, and followed suggestions of my thesis reviewers, the completed sketches seemed to miss the mark for an appropriate Marine Science Center design. This was an important exercise in experimenting and determining what not to do for my final design. For one reason, the height of a three story building on the site would limit views from surrounding areas on the site and give too much prominence to a design meant to rest lightly on the pristine landscape. Also, three stories were unfavorable because of the tortured circulation pattern to ascend to the upper floors. The long corridors and multiple stairs created more wasted space than architectural intrigue and concept fulfillment. But as anything in the thesis process is, effort to challenge ones own thinking is never a fruitless effort. The lessons learned here, gave rise to the second, more complete, Design Development iteration.
116
Overview From what I have been told, Design Development typically shows a minor refinement in the overall shape of the building exterior. Principles and geometries tend to be solidified in the Schematic Review, but in my particular case the Marine Science Center took two new directions based on adaptations to program, a visit to The Roger Williams Marine & Natural Sciences Building, and favoritism towards previous approaches by committee members. The amount of time and effort for this particular review was and is the most rigorous up to this point. A much greater understanding of the building needs to manifest into meticulous documenting and production of graphic imagery and a solid narrative. Research was critical for preparation of this review, but proper drawings showing process and final design also held equal importance.
Lessons learned from the Schematic review were as such: ! I needed to use less color. ! I needed to have more vignettes. ! I needed to address the design of the Pulpit, ! I needed to have more shown about the structure & mechanical of the building. ! I needed to explore a return elements of approach C. What I presented: ! Combined approach from schematic and “C” ! Programmatically 3rd Floor? ! Rotunda opens up space, welcoming ! Structural grid ! Triangle portion adds geometry ! More focused & defined design ! Many Vignettes of interior & exterior spaces ! Program includes offices, live animal area, research, aquarium preeminent
117
[above] Diagrams drawn by me showing the exterior experience of Vitrahaus
118
Design Development Iteration #1 Vitrahaus by Herzog de Meuron vs. Approach “C” Iteration 1 of 2: The first in The Design Development iterations was inspired by 3 ideas: Geometry from approach C in my Preliminary Review, The Program Use Diagram, and the most recent design from Schematic. As this illustration on the opposite sheet shows, I was essentially addressing a compromise between old and new designs, while keeping program paramount in my decision making. The Vitrahaus by Herzog de Meuron One particular inspiration I found useful in formulating this iteration # 1 was the use of a design precedent by Herzog de Meuron in Weil am Rhein, Germany. In the Schematic review, Rodney Cudmore suggested it as a case study that captured projected views at the ends of long extruded volumes. This description aligned with the notion of my "Zig-zag" shaped approach C as a way to experience weather through long volumes that overlook one district focal point at the end of each volume. The difference between mine and Herzog de Meuron's design being that my approach arranged volumes along one level in a regular, back & forth pattern, while Vitrahaus had been arranged in 3 levels as a randomized stacking effect similar to the game, Pick-up-sticks. For Iteration #1 of my DD Review, the design borrowed from this stacking concept while keeping in mind the established program adjacencies and the user experience. The geometry recounted aspects of my Approach C by using a equilateral triangular grid system, where the axes, placed 60 degrees from one another, gave equal importance to each axis. Having 3 competing axes convinced me that a third story might be necessary to not only give each floor unobstructed room to span but to see if a third floor made sense to accommodate the program and have an appropriate feel for the site.
[above] The somewhat tortured circulation pattern of Vitrahaus
119
Grand Lobby
Conference Room
Large Fish Holding Drums
Live Animal Holding Area
120
Display Fish Tank
Teaching Lab
Staff & Student Lounge
Precedent Site Visit Roger Williams Marine & Natural Science Building One criticism from my Schematic Review was my lack of visitations to neighboring Marine Science Centers here in New England. There are of course many to choose from, but the MSC at Roger Williams is a relatively new building on the Mount Hope Bay in Bristol, Rhode Island that has a similar size and function to the Marine Science Center which I am proposing. The reason for this visit was to get a sense for how departments, rooms and circulation paths related to one another in a similarly scaled MSC building such as this. During the day-long trip to this prestigious college, Chip Piatti and I made the most of our time by observing the scale, proportions, materials, users, equipment and program of this academic building. What Chip Piatti and I surmised from this visit, was that this building was more than just a center for research. This Marine & Natural Sciences building served also as a function space, a study space, a business space, a meeting space and an exhibit space. Because it stood alone as an entire college department building, all of the functions had evident correlations to one another. What was discoveredThe grand entrance on the street side had a nearly 5000 square foot function space that serves as a gathering place, an exhibit space and a central node from which the users branch off into their respective departments. The meeting and conference rooms are on the left, the faculty & staff offices to the right, and the research labs and classrooms were strait ahead and down an exposed stairway. Chip and I noted the grandiosity of this room with its talk arched ceiling from which a hanging whale skeleton hung, its fish tanks, its display cases, its rich green walls, its slate floors and the natural light pouring in from the southern windows at the entrance. The building also contained a newly expanded Wet Lab for research and study of the shellfish in the Mount Hope Bay. This is where we discovered the many shapes, sizes and functions necessary for the proper functioning of the Nahant Marine Science Center.
121
Concept Sketch - Level 1! !
!
!
Concept Sketch - Level 2
Program Allocation - Level 1!
!
!
Program Allocation - Level 2
122
Design Development Iteration #2 Initial Sketches & Program
Aquarium - ! Programmed: 4700! !
Actual: 8500
Library -!
Programmed: 2000! !
Actual: 3000
Classrooms -!Programmed: 5000! !
Actual: 5000
Offices -!
Programmed: 4000! !
Actual: 4500
Labs -!!
Programmed: 4000! !
Actual: 5500
Utilities - !
Programmed: 850! !
Actual: 1200
Total - !
Programmed: 20,550!
Actual: 27,700 (35% larger)
Dock - !
Programmed: n/a!
Actual: 2500
!
123
PRODUCED BY AN AUTODESK STUDENT PRODUCT
8
7
6
Auditorium 2408 SF
14
16
Women's 70 SF
Men's
15
69 SF
17
UP
Cylindrical Fish Tank
Vest.
181 SF
100 SF
Office
18
97 SF
Guest Toilet Rm.
Office 97 SF
PRODUCED BY AN AUTODESK STUDENT PRODUCT
PRODUCED BY AN AUTODESK STUDENT PRODUCT
63 SF
Reception Desk 100 SF
Mech. Rm. Office
84 SF
97 SF
3
Office Meeting Area
97 SF
112 SF
Office
Display Storage
97 SF
68 SF
Office Library
Collaborative Area
148 SF
187 SF
Rotunda 5541 SF
Conference Room 267 SF
Conference Booth 1
2
Laboratory Menchanical Room
Mechanical Room
172 SF
291 SF
45 SF
Final Animal Holding Area
Amphetheater
387 SF
Vest. 103 SF
Conference Booth 2
Individual Research Space
47 SF
Future Space for Laboratories & Storage
372 SF
1
1827 SF
UP
General Lab Office 215 SF
Ocean Water Tanks & Live Animal Area
10
Women's Room & Shower
432 SF
203 SF
Medical & Surgical Room
Men's Room & Shower
300 SF
203 SF
Quarentine, Staging & Prep Room 300 SF
11 "The Landing" 498 SF
Corr. 65 SF
12 Lounge
13
PRODUCED BY AN AUTODESK STUDENT PRODUCT
124
Floor Plans Level 1 As i stated previously, the plans for this review were completely redesigned. They were designed as if through the prism of each user. The exterior ebbed and flowed based on principled guidelines discussed later, but the design of the interior made sure to capture the qualities and uses discovered in my research. The 6 major program categories and their adjacencies, shown in my preliminary review, were preserved but with an increased floor plate and doubled square footage size. 1st floor Aquarium... Rotunda... Offices... Water Entrances... Labs... Boat Dock.... Class & Lab sizes 600 sf and up. Labs based on what was seen at Roger Williams: equip, size & 2 uses.
8
7
6
Auditorium 2408 SF
14
16
Women's W Wo men's 70 SF
Men's
15
69 SF
17
UP
Cylindrical Fish Tank
Vest.
181 SF
100 SF
Office Off ffiice ff
18
97 S SF F
Guest G uest Toilet e Rm. et Rm m.
Office Off ffiice
63 SF
97 SF SF
Reception R ecep ption D Desk esk 100 SF
Mech. Rm. Office O ffice ff
84 SF
97 SF SF
3
Office O ffic ff ce Meeting Mee e ting Area ee Arrea
97 S SF F
112 SF
Office O ffice ff e
Display D isplay Storage Storrage e
97 SF SF
68 SF
Office Off ffiice L ff Library ibrary
Collaborative Col Co lla aborative ve Area ve
148 SF SF
187 SF SF
Rotunda R otunda 5541 554 1 SF SF
Conference Conf Con ference e Room Room 267 SF F
2
Laboratory Menchanical Room Conference Conf Con ference Booth Booth 1
Mechanical Room
172 SF
291 SF
45 S SF F
Final Animal Ho Holding Area
Amphetheater A mph phe ethe hea ater
387 SF
Vest. V estt. es 103 SF SF
Conference Conf Con ference Booth Booth 2
Individual Spac ce Research Space
47 SF SF
Future Space for Laboratories & Storage
372 SF
1
1827 SF
UP
General Lab Office 215 SF
Ocean W Wa Water ater Tanks & Live ve ve A nimal Area Animal
10
Women's W Wo men's Room & Shower Showe w r we
432 S SF F
203 SF
Medical M edical & Surgical Surgica al Room
Men's Room & Shower
300 SF
203 SF
Quarentine, Q uarentine e, Stag ging & Prep p Staging Ro Room 300 SF SF
11 "The Landing" 498 SF
Corr. 65 S SF F
12 Lounge Lou Lo unge
13
125
PRODUCED BY AN AUTODESK STUDENT PRODUCT
8
7
Fish Tank Room 274 SF
6 Women's 264 SF
Stor. Men's Reception Space & Lobby
92 SF
Informal Presentation Space
260 SF
837 SF
794 SF
14
Exhibit Alcove 494 SF
Exhibit Alcove 778 SF
15
Theator / Auditorium
17
1904 SF
16
Cylindrical Fish Tank Break-out Space 514 SF
18 Grand Exhibit Area
PRODUCED BY AN AUTODESK STUDENT PRODUCT
PRODUCED BY AN AUTODESK STUDENT PRODUCT
2510 SF
Classroom Student Research Library DN
520 SF
2083 SF
3
Women's 201 SF
Men's 202 SF
Professor Lounge & Shared Office
Balcony 591 SF
966 SF
2 Mech. Rm. 117 SF
Break-Out Space / Student Lounge 467 SF
Large Classroom 1070 SF
1 Classroom Classroom 521 SF
477 SF
Classroom
Teaching Laboratory
454 SF
680 SF
10 Stairs
Indoor/Outdoor Laboratory
441 SF DN
464 SF
11 Roof Garden 1578 SF
12
13
PRODUCED BY AN AUTODESK STUDENT PRODUCT
126
Floor Plans Level 2 2nd floor Entrance... Aquarium ... Library Classrooms... ***Egress Paths...
8
7
Fish Tank Room 274 SF
6 Women's W Wo men's 264 SF
Stor. Men's Me en's Reception Space & Lobby
92 SF
Informal Presentation Space
260 SF
837 SF
794 SF
14
Exhibit Exhi ibit Al Alcove lcove v ve 494 SF F
Exhibit Alcov Alcove ve ve 778 SF
15
Theator / Auditorium
17
1904 SF
16
Cylindrical Fish Tank Break-out Space 514 SF
18 Grand E Exhibit xhibit Area 2510 SF 251
Classroom m Student Research Library DN
520 SF
2083 SF
3
Women's W Wo men n's 201 SF F
Men's M en''s 202 S SF F
Professor Lounge e hared Office &S Shared
Balcony Balco ony 591 SF
966 SF
2 Mech. M ech. Rm. 117 SF
BreakBreak-Out ak Out Space / akStudent Lounge 467 SF
Large Classroom 1070 SF
1 Classroom C lassro oom Classroom C lassroom m 521 SF
477 S SF F
Classroom
Teaching T eachin ng Labo boratory bo y Laboratory
454 SF F
680 S SF F
10 Stairs S tairs
IIndoor/Outdoor ndoor/ r/Ou r/ /Outdoor Laborato ory Laboratory
441 SF SF DN
464 SF
11 Roof Garden Ro 1578 SF
12
13
127
Amir Mesgar, my structural consultant, let me know that because the building is constructed in New England, a 6 foot-deep foundation would suffice to match the frost line. His recommendation was to have a building that is concrete due to the irregular shapes. It takes withstands lateral loads well and
Structural Detail Sketches. The 6� concrete slab rests on bearing walls & 18� columns. 128
Sections & Details Showing Structural Foundations, Connections & Mechanical Systems Mechanical Systems in the new Marine Science Center Conversation with Bruce MacRitchie on April 25, 2012 Water Source Heat Pump System: While talking with Bruce MacRitchie, the Mechanical Consultant, he recommended that I use a Water Source Heat Pump System that is flexible and usable in most buildings. It is a common system in New England because it works well in cold climates. For this system, a Make Up Air Unit of the dimensions 8’ x 4’ x 2’ would have to be placed on the roof somewhere in my design. It was not until the Final Model that I was able to account for a space such as this that would be masked by other building elements but accessible by a repair person. Designing for the interior spaces: In order to have an accurate design for the mechanical systems, I asked Bruce to show the proper sizing and placement of systems in building such as this. I learned that having Supply Air Ducts closest to the ground ensured the most comfort. The air otherwise has to have a system to be pulled down. The Return Air Registers were to be located far enough away that air does not immediately return without permeating the room. A typical Supply Air Duct is about 30” wide by 12” deep while Air Unit is about 3’ by 5’ by 16” deep. Each of these units services about 1500 to 2000 square feet with 2000 cubic feet per minute of air discharge. Each Unit would be on a programable thermostat with occupied and unoccupied periods programmed in. Geothermal Energy: I spoke to Bruce about using Geothermal energy that was brought about in my Schematic review, and he thought it would be a great idea since the site has a large thermal mass to it and by tempering the water before it reaches the heat pump, would reduce the amount of energy consumed by the building. Relative Humidity: Being that I am designing for many different types of spaces from Aquariums of Offices, to Laboratories, it was important for me to understand how each space works in an indoor comfort factor. Bruce was, at first, concerned about the relative humidity of the Giant Fish Tank, but knowing that the water temperature would remain the same 50 degrees year round, the Psychometric Chart showed that heating and cooling the Aquarium space would not be a problem.
129
Interior Vignette - Level 1 - Lecture & Performance Auditorium Space
Interior Vignette - Level 1 - Public Entry into Aquarium 130
Vignettes
Interior Vignette - Level 2 - Public Entry into Aquarium showing Lounge & Tall Atrium
Exterior Vignette - View from Edwards Laboratory to Land Entrance 131
Exterior Vignette - Level 2 - Patio, Roof Garden, Outdoor Classroom & Loggia
Interior Vignette - Level 1 - Laboratory gathering place & entrance. Conference Booths 132
Vignettes
Interior Vignette - Level 1 - The Landing
Interior Vignette - Level 2 - Library Break-out Space 133
Interior Vignette - Level 2 - Library
Interior Vignette - Level 1 - Office Suite & Reception Desk 134
Vignettes
Interior Vignette - Level 2 - Giant Fish Tank & Exhibit Space
135
Rendering #1 - view from inside corner classroom overlooking Rotunda, Pulpit and peninsula beyond.
Rendering #2 - view of northern central facade containing rounded glass breakout space cantilevering over stone clad offices. Â The view is taken from the existing steeply sloped path that is bridged over by the second story Aquarium to the right.
136
Renderings Photorealism from 3-dimensional modeling software Because the documentation of my thesis eventually was created in Revit, it was only natural to create renderings from the program. But as it is usually discovered Revit tends to make images one-note, and lacks the intent of the drawing despite best efforts to depict a clear illustration. I knew this from previous experiences, but with the help of photoshop, manipulating the image helped in one instance to clarify the image by overlaying the lines on top. In my final review, I was asked what items I would like to do if I had more time. In this instance I would have liked to create more appealing and sketch-like renderings that depicted more than the Revit images. Having said that, there was some value to having renderings produced in Revit. The renderings shown here are valuable in their ability to convey qualities of light and material during both night and day. Without 3d modeling tools such as this, it would be very difficult to imagine the intricacies of light and shadow upon the surface of a building of this geometric complexity. Vignettes are important for their own purposes; imagining the spaces for their design intent, while Renderings such as these almost take away the intent but presuppose the illusion of a real building or space. A suggestion that was given to me time and again, was to merry the Rendering with a Vignette by sketching over a Rendering. The time did not permit this but I hope to do so in the future.
137
Rendering #3 - View from the tall cliff to the South of the site looking north  at the Roof Garden, the Boat Dock, the entrance to the Landing and some of the Marine Science Center beyond.
Rendering #4 - this areal view provides a bird's eye view of the patina'd copper roof and the points, slopes and overall geometry that had been designed. 138
Renderings Continued
Rendering #5 - The green roof showing the copper patina from atop the hill to the north.
Rendering #6 - Rendering from the first the wooden deck of the Rotunda, under the Pulpit, toward the Amphitheater.
139
Rendering #7- Office Meeting Table & View of Rotunda
Rendering #8 - View from the Pulpit looking back toward the Rotunda Amphitheater and the cylindrical class facades of the building. 140
Renderings End
Rendering #9 - View from Dock back to Marine Science Center
Rendering #10 - Night rendering of Rendering #9 141
142
Summary & Conclusions For the Design Development Review What was said: ! Cynie doesn’t like “point” - but she wants you to make it work because you love it ! Discrepancy between grand entrance on plan and in vignette. ! Be sure to continue eliminating scary pointy places ! Graphics: no SF labels needed, grey site cut looks like water, no structural grid, window lines showing as one line and no mullions Criticisms ! Columns interfere with plan in awkward locations ! Presentation faux pas; i was able to fit 3 fish thanks into this space ! Renderings look real and fake at the same time - combine with hand drawing Praise: ! Presentation is legible ! Vignettes very nice ! As a whole, it is a great presentation. Design: ! Make fish tank more important than it is ! Circulation - Preferable to add an elevator between aquarium & lower auditorium ! Show more Mechanical within ceiling space Omissions ! Parking lot was not drawn in site plan ! Loading dock missing (trash & deliverables) ! Show Copper Roof with Green patina ! Show exterior wall details ! Vignette showing fish tanks with saltwater feeds ! Research Further ! Ask Mechanical Engineer about a Roof Garden
143
Pre-Final Review Synopsis page
147
Final Review Synopsis
page
149
Concept Diagram!
!
!
Site Plan
page
152
page
154
Floor Plans
page 150
Vignettes
page
156
Details
page
161
Sections & Elevation
page
162
Physical Model
page
164
page
167
Summary & Conclusions
FABRIC Traditionally, when exposed to elements, fabric quickly deteriorates, but in some applications, tention fiberglass canopies take up to 25 years of exposure to break down.
part seven...
Presented: May 3, 2012 and May 15, 2012
Final Reviews Having this final review split into two parts benefited the design with the ability to fine tune for the full final.
145
Level
New Marine Science Center Existing Edwards Laboratory & Educational Building
Proposed Parking Lot
Parking Lot Entrance
Public Area: Aquarium, Exhibit Space & Presentation Space
Display Display Corridor
Coats Presentation Room
Support Space / Storage
Rest Benches
M.
Public Area: Aquarium & Exhibit Space
Public Aqurium & Visitation Center
W.
Main Entrance
Information Ramp Up Desk
Ramp Up
Mechanical Space
Display Display Case Storage
Cylindrical Aquarium Tank
Display Corridor Live Animal Supply Closet
Information Coats Display Wall
File Storage Bridge Bridge to to Library Aquarium
Display Alcove Interactive Live Animal Display
Faculty & Administrative Offices
Books & Magazine Stacks Group Office 1
16 Person Conference Room
Daylit Display Wall
Group Office 2
Display Walls
Alcove Group Office 3
Outdoor Amphitheater & Observation Area
Alcove
Storage
Storage Views Presentation Space to & Ocean Outdoor Access Vestibule
Bridge Bridge to to Classrooms Library
Collaborative Space
Classroom Stairs Dn.
Exit Computer Sm. Conf. Stations
Outdoor Amphitheater & Observation Area
p
Stairs to Below
Study Area
Public Gathering Deck
Classroom
Mech. U irs Sta
Office 130 Person Classroom Auditorium
Office
Educational Laboratory
Classroom Learning Laboratory
Alcove M. Entrance Lounge
Library: Digital Resources, Offices: Books, & Dry Samples. Faculty & Staff
W. Reception.
Learning Laboratory
Access to Rooftop Deck Research Laboratory
Live Animal Research Laboratories
56 Pefson Auditorium
Mech. Live Animal Tanks & Support M.
W. “The Landing”
Boat Dock & Observation Deck
N
0
10 ft
30 ft
Site Plan from Pre-Final
146
Boat Dock & Tide Pool Observatory
Classrooms Educational Spaces: Laboratories, Classes & Auditorium
1
Pre-Final Review Synopsis The purpose of conducting a pre-final was to capture the majority of the the final content and to In this review my intent was to create basic graphic content that shows how the design has advanced since the previous Design Development review. The display quality was not a primary concern for this review because the principals and design were the basis for discussion. Criticisms from DD review: Sections Plans - No sf tags, key in where vignettes & renderings are taken. Details Materials - Wood, Copper, Concrete Script - 6 tubs for live animals, sense of arrival, identity and connection, “Precipice” point/tip, fish tank more of an “important” element, trash delivery/loading, no pointy interior, Site - show parking & cars, loading dock Structure - needs to be veneer (wall details), diagrams Mechanical RCP Egress - Show entrances, bathrooms Vignettes - iPad photos test Sketches & Diagrams Renderings - Night rendering, Before/After
147
"Welcome to The Marine Science Center of Nahant. The MSC Nahant is a 40,000 square foot facility serving both Northeastern University and the public patrons of New England. The facility compliments the existing 25,000 square feet of teaching and laboratory space already on the East Point region of Nahant, Massachusetts. The new building invites not only those exclusive to Northeastern University; Researchers, Faculty and Students, but those who are eager to learn more about the varied Marine Ecology local to New England and around the world. Patrons will be are finding the facility to be welcoming, educational, engaging and unique. Students are finding their education has been augmented by the myriad resources by which they can engage their intellectual curiosity. Faculty are impressed by the ways their teaching has been received in the varied class environments. Visiting lecturers, as well, have made this destination a priority in their educational tours with the impressive 50 seat 6,000 square foot auditorium to engage their audience. Lastly, researchers have come from all around the world to continue their personal and collaborative projects. At the MSC Nahant, there is something for everyone. The MSC Nahant was conceived as a study in the way buildings weather. Being sited on this remote Island Town of Boston Harbor, the rocky shores of East Point Nahant embody the ideals for aging and evolving a structure over time. The fluctuating seasonal climate and exposure to the sun wind and ocean water lends to the multifaceted Interaction of a building with its environment. In my approach to the design of this building I wanted to have the users perceive weathering by defining weathering 4 ways: weather the storm, experience weather, and to weather over time. These are my findings...
148
Final Review Synopsis Presented on this evening was a collection of all of the work I had produced up until this point, but there was additional work added since the Pre-Final shortly before. Concept diagram: With the exterior of the building mostly established, there were minimal changes between it and the Pre-final design. There are four to mention: (slice at landing dock, grand land entrance, the parking lot, the entrance to the lower performance auditorium, the dock)... Elaborate... Changes made in plan: Exterior-Because of the diagraming exert size Criticisms: Interior Materiality Lacking Intentionally my boards were lacking color. It was said in the Schematic Review, and reviews previous, that the multiple colors were distracting. I took it upon myself to tone down the colors to black and white as not to distract from the design, but make the simplicity shine through. However, in the final review, It would have been nice to increase the color for certain elements like exterior or interior materials to show the difference between old and new as surfaces weather. Notes from Pre- Final - May 3 Organization of tanks Columns in weird locations Speak in present tense Diagram organization of the building Sketch over renderings Do 6 outdoor vignettes Larger Ramp on dock New sawtooth
149
Stripes Cartesian Axis
Rays
Ripples
Polar Axis
Polar Axis
Orthagonal Cartesian Axis
150
Concept Diagram Rays & Ripples In the Pre-final, there was a verbal explanation of the logic behind the geometric shape of both the exterior, but more importantly the interior. Because this was not apparent in simply looking the designed building, I produced this geometric diagram to show the relationship of circular elements to strait. For the first time I begin to use the narrative of "the confluence of rays & ripples". This project being a Weathering Marine Science Center, the rays & ripples represent both the natural affect of sunlight hitting rippling water, and the weathering effect of those two elements. It's a dichotomy between sun & water (rays & ripples) that not only illustrates the myriad weather types, but also fuels the dynamism in the NECMS. When the concentric circles of the Rotunda Amphitheater meet the rays emanating from the Pulpit's tip, the possibility for a highly unique spatial experience is forged. As seen in plan the ripples mostly help to define the lower floor spaces, whereas the rays are slightly more prevalent on the upper floor. This second floor, however, is balanced by the presence of cylindrical elements from the Grand Fish Tank and the cylindrical curvature of the curtain wall surrounding the rotunda. After all, when rays of sun and ripples from a single pebble hitting water interact there is a poetic beauty experienced by enthusiasts of the sea and the diverse world of sea-life beneath it.
151
Murphy Battery
Edward Laboratory
New Parking Lot
A
SE CT IO N
3
B
SE CT IO N
2
C
D
E
N IO CT SE
1
LIMIT OF PHISICAL MODEL
N 10' 50'
100'
Scale: 1/32" = 1' - 0"
SITE PLAN 152
New England Center for Marine Sciences
Site & Floor Plans Level 1 Changes to the plan: Elimination of first floor path that bisected the lab spaces. Major redesign of water entrance and subsequently labs & roof garden. Structural response to precariously cantilevered pulpit Addition of exits, loading dock, vertical circulation (esp. between auditoriums).
8 9 9
35 20 20
52
52
-
34
---
6 -
34
---
21
6 21
Entry r ry Vestibule
Exhibit Room 1
Exhibit Exhib Ex hibiit Courner C ourner
Elev. Women's Wom men's Unisex U nise sex se x
Elev.
14
Men's Me en's
22
Lecture Lecture Auditorium Audiito Aud orium
Exhibit Room 2
14
22
Chair Storage C hair Sto orage Theatical Thea Th eati ea tica ti call / Lecture Lectur Auditorium Audit Aud toriium Exhibit Room 3 Women's
23 Men's Me en's
23 Exhibit Room 4
53 Lecture Lectur Rm. Staging Rm m.
53
24
UP
24
44
Information Info f rmation Desk
44
46
Cylindrical Fish Tank Vest.
Cylindrical Fish Tank
49
Break-out Space
46 49
45
Office Off ffiice Guest Toilet Toile et Rm.
25
Guest Guest Toilet Toil ile et Rm.
Level 1 Open Exhibit Spaces
Office Off ffice
45
Coats Coa ats
43
Coff ffe ff fee Coffee Kitchenette
Student Research Library Librar
47 DN
Classroom m Classroom
The Spin Spine
43 Mechanical M ech hanica icall ica Room Room
51
Office O ffic ff ce Waiting Area
Server Rm m. Rm.
Exhib bit Space Exhibit
Office O ffice ff e Meeting Ar rea Area
Display y Storage e
3 Office O ffice e
Small Exhibitt Collaborative Col Co llabora aborattive Area
26 Rotunda Rotund unda a
30
31
29
Conference Confere ference fere Room Roo oom oo m
33
26
3
Women n's Women's Men's Men's
37
Cha Ch air Sto Stor r. Chair Stor.
32
Load ng Dock Loading / Storag ge Storage
Office Library O ffiice Librar ff brary brar
Corr.
37
M M.. Individuall Toilet Rm.. Toi W dual al W.. Individ Individual Toilet et R m. Rm. L aboratory ry ry Laboratory M enchanicall Menchanical Room
30
40
31
29
Balcony
38
Meet eeting R eet oom Meeting Room
40
38 8
32
Professo fessor fesso Professor Lounge & Share Office Offic ffice ffic Shared
33
Classro assroo om Classroom
27
27 54 50
Secondary Secon ndar ary r Entry ry Vestibule
47 Reception R eception eceptio n Desk
Mech. Rm.
51
Grand Exhibit Area
25
Conference C onffere erence B ootth 1 oo Booth
IIndividual ndividual Researc esearch Research Space Spac e
Amphetheaterr Amphetheate
Vest.. Vest
54
Future Spac ace Space fforr fo Laboratories & Storage
2
2
Break eak-Out eak Break-Out Space / Student Lounge
Med dical & Medical Surgical Surgica
The Observatory
Me ech. Rm. Mech.
50
Large Large Symposiu ium iu Symposium m Classroom
36
Room m
36
Storage
Fish Tan Tank k R oom oo m Room
Conference C onffere erence Booth B ootth 2 oo
1
1
Q uare arentin ntine e, Quarentine, S tag aging & Staging P rep re pR oom m Prep Room
Standar andard Standard
Lab W orker''s Worker's Lounge & Shared O ffice ffic e Office
Connec ecting Connecting Corrido dor Corridor
Teaching Teaching Classro assroo assro om Classroom Classro assroom m Classroom
Teac each hing g Teaching Laborato Labo orry y Laboratory
Elev. Elev
Comput Co ter Computer Se Space e Serverr Spac
Wom omen's Women's R Room & Shower
Ocean O cean Wate Water aterr T anks & L ive Tanks Live An nimal A rea Animal Area
Vestibule
Classroom
UP U
Final Ani imal Animal Holding Are Area a
Elev.
10 Stairrs s Stairs
10
Indoo ndoor/ r/ r Outtdoo door Indoor/Outdoor Laborato ory ry Laboratory
39
DN
39
42
Men's Room & Shower
Corr.
42
11
Roof Garden
""The The Th e Land ndiing nd ng"" Landing"
11
12 12
41
41
Lounge Loung
13 13 ---------
Path of Egress Modified
153
Floor Plan
ELEV ATION
Level 1
UP
UP
Entry Vestibule
Lecture & Performance Auditorium SE CT IO N
3
Elev.
1
Guest Toilet Rooms
2
Information Desk
UP
First Floor Exhibit Space
Offices
The Grand Fish Tank Toilets
Mech.
8
Vest.
Coats
Coffee Kitchenette
Faculty & Staff Offices Loading Dock / Storage
Offices
Reception Desk
Office Library
Elev. Waiting Area
Stor.
Small Exhibits
Collaborative Areas
Toilets
Conference Room
Meeting Rm
Surgery Mech.
Recovery & Final Holding
Staging Amphetheater
Conference Booths
Quarentine
Vest. Lab Office Galley REF.
5
Break Out / Lobby
4
Elev. Nursery
UP
Storage F. F.E R R F.E RE
SE CT IO N2
Rotunda
Food, Medicine & Sample Storage Lounge
The Patio
Men's & Women's Room & Shower
"The Landing"
Laboratories
N IO CT SE
1
N
10'
154
50'
Scale: 1/8" = 1' - 0"
Floor Plans Level 2 DN DN
ELEV ATION
DN
Security and Information Desk DN
T&C Storage Touch Tank
UP
Grand Lobby
Aquarium Exhibit Corner
Elev.
Toilets
SE CT IO N
Chair Storage
3
The Sand Bar
Theatical / Lecture Auditorium
3
Lecture Staging Rm. Shark Tank Break-out Space
The Grand Fish Tank
Education Wing
Classroom Entry
Toilets
Server Rm.
The Pulpit
Stor.
The Spine
DN
12 '
6
Collaborative Learning Classroom
Professor Lounge & Shared Office
7
Mech. 15'
Break-Out Student Lounge
Library
Large Symposium Classroom
Stor.
REF.
N2
Mech.
Elev. Classrooms Garage Door
Roof Garden
Indoor/Outdoor Laboratory
F. F.E R F.E R RE
SE CT IO
Vest.
Laboratory DN
Stairs Laboratory
Corner Garden
N IO CT SE
1
155
View A - Land Entrance
View B - View from the Pulpit
156
Site Plan & Exterior Vignettes Relationships of Proximity and Separation In the View A Vignette, you can see there is a new proposal for a parking lot. The Land entrance is warm and inviting with a cedar wood exterior. Â Above, you can see a cantilevering gestural canopy.
157
View C - The Rotunda Amphitheater
View D - View from the Green Roof to the Dock 158
Exterior Vignettes Continued
View E - The Landing Above, the Water entrance is shown. Â Set back along the line drawn to tip of the pulpit this new entry provides a new outdoor place to gather instead of crowding the retaining wall edge.
159
ROOF
LEVEL 2
LEVEL 1
160
Exploded Axonometric Drawing Ceilings, Roof, Structure, and Lighting
The Exploded Axon on the opposite page shows how all of the ceilings, slabs, columns, beams and roof come together. It shows my response to decreasing the amount of Acoustical Ceiling Tile. There also is a redesigned sawtooth roof to accommodate space for a Make up Air Unit servicing the mechanical HVAC for the building.
Aquarium & Auditorium
KEY PLAN
AXONOMETRIC TECTONIC SECTION 161
Elevation
Section 1
Section 2
Section 3 162
Sections & Elevations Final Elevation Drawn by hand, this elevation shows the 300-foot long, western facade of the aquarium. This is, by far, the most prominent and visible part of the building for those visitors arriving by land. Line weights and materialities were taken into account when drawing it to ensure readability and compositional clarity. Sections. These three sections were cut in the same location as the previous DD review. For this final presentation, the was were not poshed with black, but rather shown as detailed wall, roof and floor sections within each building section. This was to prove that I knew how all of the vertical and horizontal elements related to one another. The structural concrete slab extends to the edges in all cases for the floor above to rest upon. Therefore the edge of the concrete is exposed throughout all bottom edges. This was what Amir Mesgar, my Structural Consultant and I discussed. Also shown on these sections is the interaction of the hilly sight and the walls placed within it. Particular care was taken to ensure the accuracy of the topography as it related to the design of the New England Center for Marine Sciences.
163
164
Final Model Physical Model By building a final model, I was able to definitively show the relationships of all exterior elements to the site. The act of building physical models not only shows a great deal to those presented to, but also helps the builder visualize and realize the construction of the design. This was true in my case as well. Building this final model was invaluable to understanding how the complex curvature of the site interacted with the final design, especially in critical areas such as the retaining wall threshold and all of the building entrances. I also used the model building experience to design the stair and ramps at the Land Entrance and the parking lot in which they were serving. Materially was also lacking in previous reviews, so this model served as a definitive legend to the materials used and in which location. The material most prominently shown is the copper roof, but along the first floor the cork shows the presence of the Field Stone walls. The roof is also important as a model to show slopes, drain locations and clerestory windows. By looking closely at this 1/16th scale model, one can truly conceive this model as a real detailed building.
165
166
Summary & Conclusions For the Final Reviews & For Entire Project The project began with the idea of deterioration or change over time as it pertains to Architecture. Now it is the New England Center for Marine Sciences. Along the way there have been many explorations and trials to force the concept of Weathering into a final constructed building. This final design was the most in depth design studied to this point, but there were a few issues to address at the onset. The new design addresses concerns about: 1. minimizing unused space. Â 2. Provisions for the appropriate amount and proximities for Tanks & Equipment. 3. Supplementing the program of Ed Lab with a more public interface and public attractions. 4. Pay homage to the site material context. Â Stone from the ice house and the retaining wall, wood from Ed Lab, concrete from the artillery bunkers. Â All of these were included in the final design. All in all, the process of thesis has provided me invaluable knowledge about Marine Science Centers, Structural & Mechanical Systems, Weathered Materials, and the Process of Architectural Design.
167
Thesis Proposal
page
STONE Stone is perhaps the most resilient of the Building Materials. Â Over time, stone will chip away & become round, as is evident from the contrast of a field stone and a smoothed river pebble.
172
part eight...
Appendix
Thesis Proposal
169