Arch 7130 2016 fall wiederspahn twild high water and housinghp

Page 1

HIGH WATER AND HOUSING: A SOLUTION FOR URBAN RESILIENCY

I am proposing a new form of resilient housing design for high water events in the urban context. I will be focusing on the relationship between land form, responsive architectures, and the physics of water to inform my design. Through analyzing precedents of several different resilient strategies, I have deduced that the most effective strategies include constructed green spaces and buoyant construction. These strategies will be deployed on a site on the harbor’s edge in East Boston, an area that is especially prone to the effects of high water events and would benefit from a solution for urban resiliency.

HIGH WATER AND HOUSING TYLER WILD

by TYLER WILD ARCH 7130 INSTRUCTOR: PETER WIEDERSPAHN

TABLE OF CONTENTS 1 SEA LEVEL RISE+IMPORTANCE OF COASTAL CITIES...............5 2 EAST BOSTON: SITE SELECTION AND VULNERABILITY.........13 3 RESILIENCE STRATEGIES.........................................................25 4 CONSTRUCTED GREENS.......................................................... 51 5 BUOYANT CONSTRUCTION.......................................................63 6 DESIGN IMPLICATIONS OF THE SITE...................................... 83 2

3

SEA LEVEL RISE

SEA LEVEL RISE

SEA LEVEL RISE: THE PAST 50 YRS

WHATS COMING 10 ft

12”

THE CAUSES

SIDE EFFECTS

by 2200

West Coast City East Coast City 8”

Back Bay Present

4” by 2100

OTHER GLACIER MELT INCREASED FLOODING

GALVESTON, TX NORFOLK, VA ATLANTIC CITY, NJ WASHINGTON D.C. NEW YORK CITY, NY BOSTON, MA CHARLESTON, SC KEY WEST, FL SAN DIEGO, CA SEATTLE, WA SAN FRANSISCO, CA LOS ANGELES, CA

1.5 ft

by 2050

38%

Back Bay 2200

+

52%

COASTAL STORMS

TEMPERATURE RISE

1

BOSTON SEA LEVEL TREND

.30

.15 (Meters)

4 ft

sea level data

HIGH WATER AND HOUSING TYLER WILD

10%

Boston Present

0

-.15

mean sea level trend

-.30 1920

1950

1980

2010

Boston 2200

6

7

RESILIENCE STRATEGIES

RESILIENCE STRATEGIES

A COMPREHENSIVE LOOK

MOST EFFECTIVE STRATEGIES

COST

ACCESIBILITY COMBINABILITY

ECOSYSTEM

VULNERABILITY EFFECTIVENESS

DRY FLOOD PROOFING

HIGH WATER AND HOUSING TYLER WILD

STRATEGY

$

+

CONSTRUCTED GREEN

WET FLOOD PROOFING

CONSTRUCTED GREENS

LIMITS VULNERABILITY

ELEVATE ON STILTS

PROMOTES

better

CHEAP EFFECTIVE

OF WAVE DAMAGE

AND

ECOLOGICAL DEVELOPMENT

BUOYANT HOUSING worse

BUOYANT HOUSING

ENCOURAGES AND MAKES ROOM FOR

MAINTAINS

RECREATION

METHOD OF RESILIENCY

3

NEIGHBORHOOD CHARACTER

ACCOUNTS FOR

MULTIPLE WATER LEVELS

48

49

CONSTRUCTED GREENS

CONSTRUCTED GREENS

A COMPREHENSIVE LOOK

MOST EFFECTIVE STRATEGY

COST

ACCESIBILITY NEIGHBORHOOD RECREATION

VULNERABILITY EFFECTIVENESS

BUILT SLOPE TO STRUCTURE

WATERFRONT RETENTION PARK

+

ELEVATED PLATFORM

CHEAPEST

BUILT SLOPE

ALLOWS EASY SERIES OF DUNES

MAINTAINS

ACTIVATES WATER

CONSTRUCTED GREEN STRATEGY

ACCESSIBILITY

AS USABLE PART OF SITE

LIMITS VULNERABILITY

OF THE SITE

NEIGHBORHOOD CHARACTER

ACCOUNTS FOR

OF WAVE DAMAGE

HIGH WATER AND HOUSING TYLER WILD

STRATEGY

$

4

MULTIPLE WATER LEVELS

RETENTION PARK worse

better

58

59

BUOYANT CONSTRUCTION

BUOYANT CONSTRUCTION

A COMPREHENSIVE LOOK

MOST EFFECTIVE STRATEGIES

COST

ACCESIBILITY

AESTHETIC

CO2

NEIGHBORHOOD FOOTPRINT

EFFECTIVENESS HIGH WATER AND HOUSING TYLER WILD

STRATEGY

$

+

SUB-GRADE AMPHIBIOUS

ABOVE GRADE AMPHIBIOUS

SUB-GRADE AMPHIBIOUS MAINTAINS

FLOATING DOCK

NEIGHBORHOOD CHARACTER

ALLOWS EASY

ACCESSIBILITY

RETROFITTED worse

72

better

DOES NOT DETRACT FROM

OF THE SITE

AESTHETIC QUALITY

FLOATING DOCK ALLEVIATES

URBAN SPRAWL

MINIMIZES THE BUILDING’S

PROMOTES THE

BY CREATING NEW LAND

5

CARBON FOOTPRINT

ACTIVATION

OF THE WATER

73


SITE SELECTION

SITE SELECTION

MARGINAL ST, EAST BOSTON, MA

MARGINAL ST, EAST BOSTON, MA

EAST BOSTON CONTEXT

THE SITE = 2,171,058 ft2 = 50 acres

THE SITE AND ITS SURROUNDINGS

REVERE

MAVERICK T

LOG

EVER

SUM

CHE LSE AR

ST

IRPO

RT

ST

ST E ST

MAR

GINA

WINTHROP

ST

STER

ORL E

BRE

MYSTIC RIVER

WEB

COT TAG

MEN S

T

NER

ANS ST

CHELSEA

AN A

HIGH WATER AND HOUSING TYLER WILD

IVER

ETT

LAM SON

EAST BOSTON CONTEXT

L ST

BOSTON, MA

PIERS PARK

CHARLES RIVER

THE

CHARLES RIVER

2

SITE

14

15

SITE SELECTION

SITE ATTRIBUTES

CURRENT USES AND RISK

HIGH WATER AND HOUSING TYLER WILD

SITE SELECTION

OVERALL

2 VIEWS

ACROSS HARBOR TO DOWNTOWN AND SEAPORT

PIERS PARK

PUBLIC PARK AND SAILING CENTER

CURRENT USES

MASSPORT STORAGE/PARKING/WASTE

FLOOD RISK

HIGHEST IN BOSTON AREA

16

17

SITE SELECTION

EAST BOSTON CONTEXT

TIDES

Original Landmass

EAST BOSTON FILL

Constructed Fill

EAST BOSTON TIDES

12.5’

TIDES CAN RISE UP TO

THE LUNAR CYCLE AND TIDES

12.5 ft

AT HIGH TIDE

AND CAN FALL DOWN TO AS LOW AS 26%

74 %

AT LOW TIDE, A

OF EAST BOSTON

IS CONSTRUCTED

74%

FILL

9.5 ft

14.8 ft !

TIDE DIFFERENTIAL.

IS THE AVERAGE TIDE DIFFERENTIAL.

TIDES SWITCH FROM LOW TO HIGH EAST BOSTON MAKES UP

10%

EAST BOSTON LAND MASS TOTALS

250,000

2X

LOW TIDE

DAILY HIGH TIDE

OF BOSTON LAND AREA

BASED ON THE

4.7mi

-2.3’

HIGH TIDE

AND ITS DIURNAL CYCLE

TIDES ARE EXACERBATED DURING

STORMS

2

LOW TIDE

TRAVEL THROUGH EAST BOSTON DAILY

EAST BOSTON IS HOME TO

$ 20 MIL

-2.3 ft

THE LUNAR CYCLE IS DIURNAL, MEANING IT HAPPENS DAILY. THIS CYCLE HAS A DIRECT INFLUENCE ON TIDES. HIGH TIDE OCCURS WHEN THE MOON IS FULL OR NEW, WHEREAS LOW TIDE OCCURS DURING A HALF MOON. THIS HAS TO DO WITH THE GRAVITATIONAL PULL OF THE MOON DURING ITS DIFFERENT PHASES OF ITS ORBIT.

40,508

GENERATED DAILY BY AIRPORT ALONE

ANOMALY

HIGH WATER AND HOUSING TYLER WILD

SITE SELECTION

STORM SURGE PREDICTED TIDE MEAN SEA LEVEL

1630 Shoreline HIGH TIDE

Present Shoreline (fill) The Site

HIGH TIDE LOW TIDE

18

LOW TIDE

19

SITE SELECTION

SITE SELECTION

LOW TIDE VS HIGH TIDE

LOW TIDE VS HIGH TIDE PIERS PARK

HIGH WATER AND HOUSING TYLER WILD

PIERS PARK

2

20

21

SITE SELECTION

2050 FLOOD MAPPING

2100 FLOOD MAPPING

HIGH WATER AND HOUSING TYLER WILD

SITE SELECTION

2 2050 SEA LEVEL RISE

22

2050 SLR + STORM

2100 SEA LEVEL RISE

2100 SLR + STORM

23


SITE SOIL

SITE SOIL

SOIL COMPOSITION

SOIL COMPOSITION

CATEGORY ASSIGNMENT

BREAKING DOWN THE SOIL TYPES

PARENT MATERIAL: EXCAVATED AND FILLED LAND OVER HERBACEOUS ORGANIC MATERIAL AND/OR ALLUVIUM AND/OR MARINE DEPOSITS

SOIL CHARACTERISTIC

o

45-50

43-54

100-200 145-240 FROST-FREE PERIOD(DAYS)

-Filled areas that were previously tidal marshes, river flood plains, bays, harbors, and swamps -Consists of rubble, refuse, and mixed soil material, typically, sand, gravel, and channel dredgings -Surface layer is very dark gray fine sandy loam about 14 inches thick -The substratum in the upper part is dark grayish brown fine sandy loam -The lower part is very dark gray silt mixed with oyster shells and other debris. -Over 80 inches to the water table -Pilings are typically used in preparing foundations

603

o

MEAN AIR TEMPERATURE

PARENT MATERIAL: EXCAVATED AND FILLED SANDY AND GRAVELLY HUMAN TRANSPORTED MATERIAL OVER HIGHLY-DECOMPOSED HERBACEOUS ORGANIC MATERIAL

603

655

MEAN PRECIPITATION

655: UE: UDORTHENTS, WET SUBSTRATUM

603

603

SOIL CLASS

32-50” 45-54”

-Mostly commercial and industrial uses -Pilings are typically used in preparing foundations -Typically covered with impervious surfaces: A storm drainage system is needed to control this excessive runoff. -The seasonal high water table is in the lower part of the substratum. -Loamy soil

655

SOIL CLASS

%

54%

46%

0-3%

0-5%

HIGH WATER AND HOUSING TYLER WILD

603:UW: URBAN WETLAND, WET SUBSTRATUM

6

PERCENT OF SITE

PERCENT SLOPES

84

85

SITE SOIL

SITE SOIL

SOIL PROFILE

PILE TYPES AND SOIL IMPLICATIONS

DATA FROM BORING HOLE NEARBY SITE

0

1

SOIL PENETRATION TEST “N” VALUE (DENSITY) 10

END BEARING PILE

SOIL LAYERS

FRICTION PILE

BORING HOLE DEPTH

100

5

ORGANIC SILT

The pile transfers the load of the building to the soil across the full height of the pile by friction. The entire surface of the pile, which is cylindrical in shape, works to transfer the forces to the soil.

SAND 10

WEAK SOIL

DEPTH (METERS)

15 MARINE CLAY 20

6

25 The bottom end of the pile rests on a layer of especially strong soil or rock. The load of the building is transferred through the pile onto the strong layer, bypassing the weak layers of soil.

30

32.9m

SILT (GLACIOMARINE) 35

STRONG SOIL

HIGH WATER AND HOUSING TYLER WILD

FILL

BEDROCK

40

86

87

CORROSION PROTECTION

CORROSION PROTECTION

PILE CORROSION DUE TO SEAWATER

METHODS FOR LIMITING PILE CORROSION OVER-DIMENSIONING THE PILES

CATHODIC PROTECTION

USE OF A HIGH YIELD STEEL

COATINGS

Effective life of the pile can be increased by the use of additional steel thickness as a corrosion allowance. The pile thickness can be increased locally by the addition of steel plates.

Cathodic protection is the commonly used technique for the overcoming the corrosion on piles. Cathodic protection is the process of using electrochemical reactions to prevent steel from corrosion.

MODERATE CORROSION

CORROSION RATE (without protection) <0.1 MM/YEAR

ATMOSPHERIC ZONE

SEVERE CORROSION

CORROSION RATE (without protection) <0.3 MM/YEAR

SPLASH ZONE

High yield steels will allow an additional 30% loss of permissible thickness to be sustained without detriment. This method, in effect, builds in a corrosion allowance and gives an increase of 30% in effective life of a steel piling structure for an increase of only about 7% in steel costs.

CORROSION RATE (MM/Y-1)

CORROSION RATE (without protection) <0.1 - 0.3 MM/YEAR

TIDAL ZONE

6

NORMAL STEEL HIGH YIELD STEEL

1.6

HIGH CORROSION

HIGH WATER AND HOUSING TYLER WILD

GROUND

1.2

ORGANIC RESIN COATINGS

CONCRETE JACKETING

GLASS FLAKE POLYESTER

FIBER-REINFORCED POLYMER

0.8

LOW CORROSION

CORROSION RATE (without protection) <0.1 - 0.2 MM/YEAR

SUBMERGED ZONE

PILE

0.4 0

0

1

2

3

4

5 6 TIME (HOURS)

7

8

9

10

11

88

89

FLOOD ZONES

FLOOD ZONES

FEMA ZONING MAP

FEMA ZONING CATEGORIES

ZONE A

Wave Height < 1.5 feet

COASTAL ZONE A

ZONE V

Wave Height _> 3 feet

Wave Height 1.5-3 feet

n g w av evel includi l d o Flo

1-percent-annual-chance flood elevation

e effects

AE 100-year stillwater elevation

VE

Landward extent of storm surge

AE

AO

Limit of base flooding and waves

AE- corresponds to the areas of 1-percent annual chance of flooding

VE

AO- corresponds to the areas of 1-percent shallow flooding (usually sheet flow on sloping terrain) where average depths are between 1 and 3 feet

VE

Current Sea Level

Limit of moderate wave action

HIGH WATER AND HOUSING TYLER WILD

SURROUNDINGS

6

VE- corresponds to areas within the 1-percent annual chance coastal floodplain that have additional hazards associated with storm waves.

90

91

WAVE PROTECTION

WAVE PROTECTION

MARINE HABITAT SHELF

MARING HABITAT SHELF: PRECEDENT STUDY

TIDAL ZONES AND THEIR ECOSYSTEMS

VANCOUVER CONVENTION CENTER by LMN ARCHITECTS

ROCKWEED ROCK LOUSE

4’ 0’

LIMPET

INTERTIDAL ZONE

-9’

BARNACLES

PERIWINKLE

MUSSELS

HIGHER WATER LEVEL

CHITON

MEAN SEA LEVEL

SEA LETTUCE

ABALONE KELP CRABS

HERMIT CRABS LOWEST NORMAL TIDE

ANEMONE

SEA SLUG

SUBTIDAL ZONE

-24’ -39’

92

ALGAE

SPONGES BULL KELP

HIGH WATER AND HOUSING TYLER WILD

BUILDING

6

STARFISH

SEA URCHINS

DEEPER SUBTIDAL ZONE

93


WAVE PROTECTION

WAVE PROTECTION

OYSTER-TECTURE

OYSTER-TECTURE

WATER QUALITY EFFECTS

WAVE ATTENUATORS

PLANKTON FILTERED WATER

OYSTER

DEBRIS

WATER WITHOUT OYSTER BEDS

FUTURE PROTECTION

WATER WITH OYSTER BEDS

ECOSYSTEM EFFECTS

CRABS

OYSTER BEDS

HIGH WATER AND HOUSING TYLER WILD

CONTAMINANTS

GROW AT A RATE OF

2 cm/year

ENOUGH TO KEEP UP WITH

RISING SEA LEVELS

MOLLUSKS

LOBSTERS

6

ANEMONES

FISH

MUSSELS

94

95

DESIGN IMPLICATIONS

DESIGN IMPLICATIONS

CLIMATE PATTERNS

SUN PATH ANALYSIS

TEMPERATURE (DEGREES F)

HIGH

90

SUMMER AND WINTER SOLSTICE ALTITUDE ANGLES

LOW

80

60

HIGH WATER AND HOUSING TYLER WILD

70

SUMMER SUN 63 DEGREES

50 40 30 20 JAN

FEB

MAR

APR

MAY

JUNE

JULY

AUG

SEP

OCT

NOV

DEC

PRECIPITATION (INCHES) 4

THE SITE

3

6

WINTER SUN 26 DEGREES

2

1

N 0 JAN

FEB

MAR

APR

MAY

JUNE

JULY

AUG

SEP

OCT

NOV

DEC

96

97

DESIGN IMPLICATIONS

DESIGN IMPLICATIONS

SEASONAL WIND PATTERNS

EAST BOSTON WIND SPEED BY MONTH

N

N

15% 10%

ALTITUDE OF 4.5 FEET

ALTITUDE OF 58 FEET

16

10%

5%

WINTER

AVERAGE WIND SPEED

15%

14

5%

W

E

W

E

SPRING

12.9 AVG 12

10 S

S

N

8.8 AVG

N

15%

8

15%

10%

10%

6

6 5%

SUMMER

5%

W

E

W

E

FALL

HIGH WATER AND HOUSING TYLER WILD

PEDESTRIAN LEVEL

4

2

S

S < 15 MPH

ALL WINDS

< 10 MPH

0 0

< 7 MPH

1

2

3

4

5

6

7

8

9

10

11

12

MONTH

98

99

DESIGN IMPLICATIONS

DESIGN IMPLICATIONS

SITE SECTIONS

SITE SECTIONS TALLEST BUILDING 72’ TALL

ORLEANS STREET

HAYNES STREET

COTTAGE STREET

SAMUEL ADAMS SCHOOL

MARGINAL STREET

WIDE BUILDING SPACING

HIGH WATER AND HOUSING TYLER WILD

SECTION AA

MARGINAL STREET

A

B

SECTION BB BOSTON HARBOR

PEIR ONE APARTMENT BUILDING

6

MARGINAL STREET

A

SCALE:

0’

B

100’

100

101

PROGRAM

PROGRAM TYPES IN EAST BOSTON

SURROUNDING PROGRAMS TYPES

PERCENTAGE OF BUILT AREA (FT2)

EAST BOSTON CONTEXT

THE SITE = 2,171,058 ft2 = 50 acres

MAVERICK T

LOG

EVER

ETT

Commercial (15%)

ST

ST

GINA

L ST

TAG E

MAR

Residential (57%)

COT

Institutional (9%)

ST

QUANTITY OF EACH PROGRAM TYPE PIERS PARK

5226

RESIDENTIAL STRUCTURES CHARLES RIVER

0

102

1000

2000

3000

4000

THE

ST

STER

SON

S ST

WEB

EAN

57%

ORL

Mixed Use (1%)

ST

ST

RESIDENTIAL

Other (2%)

NER

MEN

57%

Industrial (5%)

SUM

BRE

Government (4%)

AN A

LAM

Apartment (6%)

IRPO

RT

HIGH WATER AND HOUSING TYLER WILD

PROGRAM

6

SITE

5000

103


PROGRAM

PROGRAM

SITE SPECIFIC SPATIAL REQUIREMENTS

AUXILIARY PROGRAMS

NUMERIC PROGRAM SPECIFICATIONS

1000

RETAIL AND PUBLIC FACILITIES

50 ACRES

Residential GFA (72%)

RESIDENTIAL APARTMENT

IN THE RANGE OF

72%

UNITS

Bike Parking (1%)

AREA OF PROGRAMS (SQ FT)

MAXIMUM HEIGHT OF

70 FEET

50% OPEN SPACE

REQUIREMENT ON SITE

750 CAR SPACES

Car Parking (2%) RESTAURANTS

SHOPPING

CONFERENCE CENTER

SPORTS GREENS

POST OFFICE

GYM

MOVIE ROOM

HARBORWALK

BIKE PATHS

OUTDOOR DINING

Green Space and Recreation (21%)

ON SITE

FOR EVERY RESIDENTIAL UNIT

Retail and Public Facilites (4%)

RESIDENTIAL

2-2.5 FLOOR AREA RATIO

7-? BUILDINGS

GREEN SPACES AND RECREATION

HIGH WATER AND HOUSING TYLER WILD

THE SITE TOTALS

PROGRAM AREA MAKE UP

4,300,000

$

1 BIKE SPACE

BANK

DAY CARE

LAUNDROMAT

BOAT REPAIR SHOP

TEMPORARY STAY UNITS

PUBLIC DOCKS

KAYAK LAUNCH

WATER TAXI STATION

LEISURE

WATERFRONT PARK

SWIMMING AREA

SAILING CENTER

6

1,300,000

220,000

ABOVE AND BELOW GROUND

121,500

72,000 DOG CARE CENTER

GARDEN AREAS

104

105

SITE MASSING

SITE MASSING

PROPOSED BUILDINGS

PROPOSED ROADS PROPOSED BUILDINGS

WAVE ATTENUATORS

PROPOSED ROADS

EXISTING ROADS

HIGH WATER AND HOUSING TYLER WILD

EXISTING BUILDINGS

6 N

N 0’

100’

0’

100’

106

107

SITE MASSING

SITE MASSING

GRID AND SIGHT LINES

HEIGHT RELATIONSHIPS 60’

40’

30’ or Below

HIGH WATER AND HOUSING TYLER WILD

70’

SAMUEL ADAMS ELEMENTARY SCHOOL

COTTAGE ST

HAYNES ST

OPEN SPACE

SITE VISIBILITY

ORLEANS ST

SIGHT LINES

PORTSIDE AT EAST PIER

6 WATER VIEW

N

N 0’

100’

0’

100’

108

109

SITE MASSING

SITE MASSING

PUBLIC SPACES

VIEWS WATER

LAND

PARK VIEWS

WATER VIEWS

WATER AND PARK VIEWS

HIGH WATER AND HOUSING TYLER WILD

WAVE ATTENUATORS

6 N

N 0’

100’

0’

100’

110

111

SITE MASSING

SITE MASSING

SITE SECTIONS

SITE SECTIONS

SECTION AA

SECTION DD

B

A HIGH WATER AND HOUSING TYLER WILD

C

SECTION BB

SECTION CC

D

D

6

N 0’

100’

C

112

B

A

0’

100’

113


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