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TIMBER TOWER+ POPLAR PLANTATION KATHERINE LAUGHINGHOUSE & MOLLY MCNALLY || PARAMETRIC SYSTEMS CRIT

CLIMATE ANALYSIS: leveraging

January - June N

345°

Underheated

Underheated

30° 10°

315°

Jan

Feb

Mar

Apr

May

Jun

Jul

Aug g

Sept p

Oct

Nov

Dec

15°

330°

45°

20° 30°

300° 1st Jun

60°1st Jul

40°

1st Aug

50°

1st May 285°

60°

75° 1st Sep

70° 80°

1st Apr 270°

Comfort

Overheated

Comfort

90° 1st Oct

1st Mar 255°

105° 1st Nov

1st Feb 1st Jan240°

16

15

14

13

9

10

11

12

1st Dec 120°

8

225°

135° 210°

150° 195°

180°

165°

July - December 345°

N

15° 30°

330° 10° 315°

45°

20° 30°

300° 1st Jun

60°1st Jul

40°

1st Aug

50°

1st May 285°

60°

75° 1st Sep

70° 80°

1st Apr 270°

90° 1st Oct

1st Mar

POPLAR BYPRODUCTS PROVIDE HEATING

http://www.permacultureactivist.net/PeterBane/Jean_Pain.html

POPLARS ACT AS A SCREEN

POPLARS ALLOW SOLAR EXPOSURE

105° 1st Nov

255° 1st Feb 1st Jan240°

16

15

14

13

12

11

10

1st Dec 120°

8

9

225°

135° 210°

150° 195°

180°

165°

CLIMATE ANALYSIS: minimizing to p s u ar w e o gr ’ a y 10 02 C s S + ease S MA incr O BI ake int

High transpiration rates (100 liters/day optimally for 5 year old tree)

400,000 Tons of C02 http://www.bu.edu/today/2015/a-new-map-for-greenhouse-gas/

BIOMASS used to replace FOSSIL FUELS

’

10

<5

’ 10

4y 3y

rs

2y

rs

1y

rs

r

CU

TT

IN

G

yrs

5-6

yrs

CARBON SINK: maximizing

100’

80’

30’

10’

LUMBER PLYWOOD, DECORATIVE 12X12 GRID, HARVEST 12-14 YEARS

CHIPS FOR PULPWOOD 12’X6’ GRID, HARVEST 8-10 YEARS

BIOFUEL, BURNING 10’X3’ GRID, HARVEST 3 YEARS CUTTINGS, PROPOGATIVE BEDS 10’X1’ GRID, HARVEST 1 YEAR

COMBINED: overlapping

100’

ACRE ~208’X208’

100’

STRUCTURAL GRID 20’X20’

YEAR 30

100’

YEAR 20

YEAR 10

YEAR 5

POPLAR GRID 10’X10’

YEAR 1

INTERCROPPING GRID 10’X10’

+28’ 2nd story 1st story

100’

DORMANT / URBAN DEVELOPMENT/ NUTRIENT CYCLING YEAR 30

YEAR 20

YEAR 10

YEAR 5

YEAR 1

INTERCROPPING SUCCESSION

PLAN STRATEGY: permanence E N O

Z E L

E

L U D

IB X E

O M T

FL

N E N

PE

A M R

COMBINATION: linear

ELEVATED 1ST FLOOR COMPOST MOUNDS 3’

L VE RA G LE B US A IL RO R T O TE SO P A W 3’

CONCRETE PILINGS

EXTENSIVE ROOT GROWTH RS

YE LA

ELEVATED STRUCTURE >> PILINGS >> OPENINGS FOR ROOT GROWTH

COMBINATION: biodegradeable

RADIANT HEATING

3

2

1

HEATED WATER CIRCULATION

COMPOST MOUNDS

EXTERIOR BIODEGRADEABLE SYSTEM >> INTERIOR HEAT RELEASE

COMBINATION: biodegradeable

STRAW INSULATION ALTERNATING “GREEN” + “BROWN” LAYERS FROM POPLARS STICKS + BIOMASS MOIST SOIL

D N U

O M T

S O P

M O C

80’ 1215 TREES

8 YEAR POPLARS >> WOOD CHIPS >> COMPOST >> HEAT CLT PANELS

COMBINATION: biodegradeable

FINISH FLORR

ALUMINUM SHEATHING

GROOVES FOR PIPES CLT PANELS

LY B M

OR

E S S

A

O

FL

CLT STRUCTURE >> RADIANT HEATING CONSTRUCTION >> ALUMINUM INSULATION

ADJACENT: vegetated

MECHANICAL VENTILATION

AIR CAVITY

SHADOW max 10 yr tree STAGGARED PLANTING / HARVESTING

POPLAR TREES + FACADE >> CONTROLLED VENTILATION

ADJACENT: double skin

VENTILATION TO INTERIOR

4â&#x20AC;&#x2122; EXTENDED FACADE

METAL GRATE

DOUBLE GLAZING INSULATION FRESH AIR INTAKE

ADJACENT: louvre system

INSULATED LIGHT WOOD FRAME

OPERABLE WINDOW SCREENS VERTICAL WOOD LOUVRES

EXTERIOR WOOD CLADDING

LOUVRE FACADE >> CONTROLLED HEAT GAIN

LARGE SCALE: integrating

4500 SQ FT to be heated

=

2 MIL BTU needed per day

=

3240 FT3 of compost needed

=

1215 trees 80â&#x20AC;&#x2122;, 8 years old

=

2.7 acres per harvest

=

21.6 acres total needed

TIMBER CONSTRUCTION POPLAR PLANTATION

WOOD REGIME PLOT ROTATION SCHEME 1 acre > 361 trees > 15 tons

vacant

understory

POPLAR year 1

year 10

YEAR 1

YEAR 2

YEAR 3

YEAR 4

YEAR 5

YEAR 6

YEAR 7

YEAR 8

YEAR 9

YEAR 10

LARGE SCALE: recycled

CATCHING MEDIUM

GRID REUSED AFTER LIFE CYCLE OF CLT PANELS (~5O YEARS)

MINIMAL SHADING

CONTINUAL RECYCLING OF POPLARS

MAN POWER 10-15 people per compost mounds WATER SOURCE

HYBRID POPLAR 21.6 acres

“GRID” can disrupt poplar grid

HYBRID TIMBER CLT panels

INSULATED

FACADE

WOODCHIPS ALFALFA

+ floorboard HEATING

COMPOST MOUND

2 mil BTU decomposition

LIGHTING

HARVEST 2.7 acres per year 8 year old poplars

LIFESPAN

50-60 YEARS RESIDUAL

STRUCTURE PLANT + HARVEST 3 year old poplars

RECYCLED BYPRODUCTS SOIL FUEL STRUCTURE WOODCHIPS PULPWOOD BIOFUEL

AR

H

DI +

CO

M POST

MBAR

R IB U T E

ST

H SOIL RIC

STO

RE

RE LE YC C

T

IATION ED M

G

RA Y

F L O OR

NUTRI EN

H E AT I N G

IR

R I G AT I O N

PHYTO RE

POPLAR V E S TIN G

POPLAR

LU

RAIN

CL T PA N E L S

EXISTING SOIL CONTAMINATED HISTORICAL FLOODPLANE

WATER SALTWATER CONTAMINATED FRESHWATER

POPLARS LACK OF

YEAR 1 SOIL -small cuts along contaminated waterfront - condenses contaminated soil

WATER begins to collect in retention zones from the ´ÀOOµ

POPLARS initially planted along freshwater for growth

YEAR 3 SOIL - deeper cuts - mounds expand - begins as buffer to contaminated industry and residential

WATER - extend as irrigation from freshwater source - begin to further catch storm water run off as further irrigation

POPLARS - young planted on contaminated mounds can be replaced - from year 1, poplars can be replanted to stabilize salt water edge

YEAR 10 SOIL - clean soil can be used for edge stabilization - anticipating higher storm surges

WATER - extend infrastructure to dilute salt water poplars

POPLARS - poplars along FW edge can be used for production - stablize edge conditions - further clean mounds

YEAR 30 SOIL - housing developments can extend into clean, stablized areas

WATER Ă RRGDEOH ZDWHUIURQW

POPLARS - new production in industrial zones

EXISTING

YEAR 1

YEAR 3

YEAR 10

YEAR 30

EXISTING FILL + COMBINE

YEAR 1 FILL + COMBINE

YEAR 3 FILL + COMBINE

YEAR 10 FILL + COMBINE

YEAR 30 FILL + COMBINE

EXISTING CUT + FLOOD

YEAR 1 CUT + FLOOD

YEAR 3 CUT + FLOOD

YEAR 10 CUT + FLOOD

YEAR 30 CUT + FLOOD

EXISTING GROW + REUSE

YEAR 1 GROW + REUSE

YEAR 3 GROW + REUSE

YEAR 10 GROW + REUSE

YEAR 30 GROW + REUSE

TIMBER TOWER+ POPLAR PLANTATION

KATHERINE LAUGHINGHOUSE & MOLLY MCNALLY || PARAMETRIC SYSTEMS CRIT KATIE LAUGHINGHOUSE + MOLLY MCNALLY || PHASE 3 CRIT

SITE CONTEXT

INDUSTRY + FLOOD-

contamination due to infrastructure, industry, impervious surface,and physical separation

dual risk zone high risk of further water contamination

SEWER OVERFLOW

77% IMPERVIOUS

EVERETT

69% IMPERVIOUS

SCRAP METAL YARD UNDER COURT ORDER TO STOP POLLUTING

CHELSEA

SOMERVILLE 77% IMPERVIOUS

77% IMPERVIOUS

MYSTIC R

IVER

A

LOWER CHARLES RIVER

B

SWIMMABLE BOATABLE

81%

C

98%

CSO

MYSTIC RIVER

D

SWIMMABLE BOATABLE

2006

2011

47%

75%

BOSTON

56% IMPERVIOUS

MASTER PLAN

TEST SITE

REMEDIATE PARTICULAR TO CONTAMINANTS

between residential + industrial

gas LEAD BLUE SHEEP FESCUE INDIAN MUSTARD COMMON WHEAT COMMON RAGWEED

petrolium

DICHLORAPHENYLTRICHLOETHANE WHITE ROT FUNGUS PUMPKIN

coal

gas MTE

ARSENIC CHINESE BRAKE FERN SUNFLOWER HIGHLAND BENT GRASS

fossil fuels MERCURY

INDIAN MUSTARD SEAPINK THRIFT RAPESEED PLANT

WILLOW PINE

refrigerant TCE

WILLOW PINE POPLAR

fire resistant PCBP SCARLET ROSE ZUCHINI

metal processing CHROMIUM

ALPINE PENNYCRESS SUNFLOWER GIANT DUCKWEED

MASTER PLAN maximum potential FRQGHQVHG FRQWDPLQDWLRQ Ã&#x20AC;OO excavated zones afforested zone

poplar workhorse transitional industry protected industry

TIMBER TOWER+ POPLAR PLANTATION KATIE LAUGHINGHOUSE + MOLLY MCNALLY || MID TERM CRITIQUE KATHERINE LAUGHINGHOUSE & MOLLY MCNALLY || PARAMETRIC SYSTEMS CRIT

SITE CONTEXT contamination due to infrastructure, industry, impervious surface,and physical separation

SEWER OVERFLOW

77% IMPERVIOUS

EVERETT

69% IMPERVIOUS

SCRAP METAL YARD UNDER COURT ORDER TO STOP POLLUTING

CHELSEA

SOMERVILLE 77% IMPERVIOUS

77% IMPERVIOUS

MYSTIC R

IVER

LOWER CHARLES RIVER SWIMMABLE BOATABLE

81%

98%

CSO

MYSTIC RIVER

SWIMMABLE BOATABLE

2006

2011

47%

75%

BOSTON

56% IMPERVIOUS

INDUSTRY dominating the waterfront historic waterline industrial zones freshwater saltwater urban tanks

FLOODING FRPSRVLWH RI Ă RRGLQJ VHD OHYHO ULVH DQG VWRUP VXUJH historic waterline projected hazard composite freshwater saltwater urban tanks

INDUSTRY + FLOODING dual risk zone high risk of further water contamination

CLIMATE ANALYSIS: leveraging

January - June N

345°

Underheated

Underheated

30° 10°

315°

Jan

Feb

Mar

Apr

May

Jun

Jul

Aug g

Sept p

Oct

Nov

Dec

15°

330°

45°

20° 30°

300° 1st Jun

60°1st Jul

40°

1st Aug

50°

1st May 285°

60°

75° 1st Sep

70° 80°

1st Apr 270°

Comfort

Overheated

Comfort

90° 1st Oct

1st Mar 255°

105° 1st Nov

1st Feb 1st Jan240°

16

15

14

13

9

10

11

12

1st Dec 120°

8

225°

135° 210°

150° 195°

180°

165°

July - December 345°

N

15° 30°

330° 10° 315°

45°

20° 30°

300° 1st Jun

60°1st Jul

40°

1st Aug

50°

1st May 285°

60°

75° 1st Sep

70° 80°

1st Apr 270°

90° 1st Oct

1st Mar

POPLAR BYPRODUCTS PROVIDE HEATING

http://www.permacultureactivist.net/PeterBane/Jean_Pain.html

POPLARS ACT AS A SCREEN

POPLARS ALLOW SOLAR EXPOSURE

105° 1st Nov

255° 1st Feb 1st Jan240°

16

15

14

13

12

11

10

1st Dec 120°

8

9

225°

135° 210°

150° 195°

180°

165°

CLIMATE ANALYSIS: minimizing to p s u ar w e o gr ’ a y 10 02 C s S + ease S MA incr O BI ake int

High transpiration rates (100 liters/day optimally for 5 year old tree)

400,000 Tons of C02 http://www.bu.edu/today/2015/a-new-map-for-greenhouse-gas/

BIOMASS used to replace FOSSIL FUELS

’

10

<5

’ 10

4y 3y

rs

2y

rs

1y

rs

r

CU

TT

IN

G

yrs

5-6

yrs

CARBON SINK: maximizing POPLAR POTENTIAL sustainable workhorse

100’

80’

30’

10’

LUMBER PLYWOOD, DECORATIVE 12X12 GRID, HARVEST 12-14 YEARS

CHIPS FOR PULPWOOD 12’X6’ GRID, HARVEST 8-10 YEARS

BIOFUEL, BURNING 10’X3’ GRID, HARVEST 3 YEARS CUTTINGS, PROPOGATIVE BEDS 10’X1’ GRID, HARVEST 1 YEAR

SITE STRATEGIES

EXISTING

CUT + FILL + REMEDIATE + FLOOD

FRESHWATER

HIGHLY CONTAMINATED ZONE

SALTWATER

YEAR 1

YEAR 3

YEAR 10

YEAR 30

EXISTING

YEAR 1

YEAR 3

YEAR 10

YEAR 30

SITE STRATEGIES REMEDIATE + PLANTING

SITE STRATEGIES INPUTS + OUTPUTS

MASTER PLAN REMEDIATE PARTICULAR TO CONTAMINANTS

gas LEAD BLUE SHEEP FESCUE INDIAN MUSTARD COMMON WHEAT COMMON RAGWEED

petrolium DICHLORAPHENYLTRICHLOETHANE

WHITE ROT FUNGUS PUMPKIN

coal

gas MTE

ARSENIC CHINESE BRAKE FERN SUNFLOWER HIGHLAND BENT GRASS

fossil fuels MERCURY

INDIAN MUSTARD SEAPINK THRIFT RAPESEED PLANT

WILLOW PINE

refrigerant TCE

WILLOW PINE POPLAR

fire resistant PCBP SCARLET ROSE ZUCHINI

metal processing CHROMIUM

ALPINE PENNYCRESS SUNFLOWER GIANT DUCKWEED

MASTER PLAN maximum potential FRQGHQVHG FRQWDPLQDWLRQ Ã&#x20AC;OO excavated zones afforested zone poplar workhorse transitional industry protected industry

TEST SITE between residential + industrial

SITE PLAN

+16

+14 +12

+10

+8

+6

+4

+6 +4 +6

+2

SITE PLAN soil contamination

+16

+14 +12

+10

+8

+6

+4

+6 +4 +6

+2

SITE PLAN

20%

8%

8%

NI

SE AR

E PRO DU CTI VE ZON

10%

STAGING SURFACES + PRODUCTIVE CIRCULATION 1

RS LA D OP AR >P ST IFT NT E MUTHR LA TC AN K P T> DI IN ED AN IN EAP ESE ER Y > S RAP DG RI UR E EF RC CU +R ME ES D VE S> SI S P F AR T D EL EE ST EA EE HE GU FU AD SH MU WH GW UN IL E A TF U SS AN ON R L B RO DI M ON FO > TE IN D INCOMMM HI PK EA O W C UM >L N > P S > ER S M GA TS E F RAS IU AN AK G OL PL BR R NT ET PR ER E E E W ES OW D B T> PO HINNFL AN DD C > CSU IGHL H

2%

D RA TG YA TR EN

3 2 4

SOI L TRA NSI TIO COM N POS TIN G

20%

5%

20%

<2% POPLAR PLANTATION

RESIDENTIAL ZONE

GRADING AS A PROGRAMMATIC DRIVER RETAINING WALL

4

INTERCROPPING F O ST VE AR H AL N O AS SE OF TREES 8-10 3 YEAR HARVEST YEA R

1

PLANTING ASSOCIATED TO USE

2

OP EN “LA WN ” 3 3

3

SITE PLAN productive circulation

3 4

3

2 1

BUILDING STRATEGY

foundation

RESIDENTIAL / LOCAL PRODUCTION

MANUFACTURING / LARGE SCALE INDUSTRY

ELEVATIONS

INTEGRATED SYSTEMS

MASTER PLAN maximum potential FRQGHQVHG FRQWDPLQDWLRQ Ã&#x20AC;OO excavated zones afforested zone poplar workhorse transitional industry protected industry

NO PHYSICAL CONTACT

>16 PPM COA POWER PLANTS

SITE STRATEGIES SITE STRATEGIES

stratifying and outputs over time stratifyingthe theinputs inputs and outputs over time

ARSENIC

METAL PROCESSING STEEL WELDING

CHROMIUM

GAS

LEAD

FOSSIL FUELS

10x3

10x6

MERCURY

REFRIGERANTS FIRE RESISTANTS

PCB

REFRIGERANTS ADHESIVE

PLANTING

TCE

GAS

MTBE

PETROLEUM

CHINESE BRAKE FERN SUNFLOWER HIGHLAND BENT GRASS ALPINE PENNYCRESS SUNFLOWER GIANT DUCKWEED

>400PPM 400 PPM 53 PPM

INDIAN MUSTARD SEAPINK THRIFT RAPESEED PLANT

>.81 PPM .81 PPM .18 PPM

SCARLET ROSE

ZUCCHINI

>21 PPM 21 PPM 10 PPM .47 PPM

WILLOW

>100 PPM 100 PPM 62 PPM .93 PPM

PINE POPLAR

PINE

MULTI-FAMILY HOUSING RECREATION PARKS

>1 PPM 1 PPM .1 PPM

WILLOW

DDT

WHITE ROT FUNGUS

PUMPKIN

>7.9 PPM 7.9 PPM 1.7 PPM .003 PPM

PCP

WHITE ROT FUNGUS CRESTED WHEATGRASS

>8.7 PPM 8.7 PPM 2.4 PPM .9 PPM

SINGLE FAMILY GARDENING PLAYGROUND

GROWING FOOD

YEAR 30

YEAR 10

YEAR 9

YEAR 6

YEAR 3

YEAR 1

EXISTING

>180 PPM 180 PPM 35 PPM 30 PPM

BLUE SHEEP FESCUE INDIAN MUSTARD COMMON WHEAT COMMON RAGWEED

SOIL CONTAMINATION WOOD TREATMENT

16 PPM 13 PPM

PULPWOOD

CONTAMINATION DATUM

CO2 SEQUESTRATION OF HIGHWAYS

PHYTOREMEDIATION OUTPUTS

SECONDARY FOREST

BIOFUEL

COMPOSTING

FILL

accept other contaminated sites clean soil moved on site + for other infill sites

condensed footprint HARVEST BIOMASS

HARVEST BIOMASS

HARVEST BIOMASS

HARVEST BIOMASS

INTERCROPPING

POPLAR stabilization wetland condition

DISMANTLING INDUSTRY

develop pment protected community development

staggered building

CUT

CONDENSED INDUSTRY industrial focus urban focus

SEA LEVEL RISE DATUM

coastal focus

SCENARIO B

SCENARIO A

A S SEM BL Y systemic over time

CONTAMINATED FILL SOIL REMEDIATED BY POPLAR PLANTATION

POPLARS HARVESTED AS SOIL IS CLEANED

FOUNDATION PILINGS INSERTED TO READY SITE FOR BUILDING

PREFAB LOAD BEARING CLT FACADE PANELS SET INTO PLACE WHILE CORE IS POURED PER FLOOR

GLULAM COLUMNS AND CLT PANELS INSERTED INTO FRAMEWORK

CONCRETE ENTRANCE CORES CAST AS PERMANENT ZONE

ADDITIONAL FLOORS ARE ADDED WITH THE FLEXIBILITY FOR DOUBLE HEIGHT SPACES

LIFESPAN renewable materiality

PRECAST CONCRETE FRAMES LAID ON PILINGS AND CORES

ROOF ASSEMBLED TO FULLY ENCLOSE BUILDING

E R U T C U R T S T A E H O COMPOST USED T

T

MPOS O C

1.5 YEARS exchange of nutrients

PLARS O P

1 YEAR 3 YEARS 5 YEARS 8 YEARS

CARBON SEQUESTRATION

PANE T L

LS

C

50 YEARS

MEWO A R

RK

F

30 YEARS

100 YEARS

M COL A L

NS UM

GLU

MAINTENANCE TO EXTEND LIFE SPAN

LIFESPAN DETERMINANT ON MOISTURE CONTENT

UPCYCLING SYSTEMS upcycling byproducts to minimize waste

integration FRAMEWORK FOR EXPANSION

DOUBLE HEIGHTED SPACE LOCAL PRODUCTION

COMMERCIAL / RESIDENTIAL

JOBS

TERRACE

OCCUPIABLE CLEAN SOIL COMPOST CLEAN SOIL SOIL

PROTECTION FROM CONTAMINATION

TRUCK DROP OFF CONTAMINATION

SECTION A programmatic functionality SCALE 1/8”:1’

BUILDING INPUT RAIN WATER

BUILDING OUTPUT ORGANIC WASTE

RAIN

H

RIB U T E

ST

VENTILATION BUILDING OUTPUT

DI

V E S TIN G

AR

RA Y

G

CO

BUILDING OUTPUT GRAY WATER

PHYTO RE IATION ED M

H SOIL RIC

R I G AT I O N

T

H E AT I N G

NUTRI EN

IR

POPLAR

STO

M POST

RE

+

BUILDING OUTPUT SAW DUST

GRAYWATER USED FOR IRRIGATION

LANDSCAPE OUTPUT COMPOST HEAT

ANTICIPATION AND COLLECTION OF RUNOFF

BUILDING OUTPUT BUILDING OUTPUT IRRIGATION LANDSCAPE OUTPUT PHYTOREMEDIATED GROUND WATER

WATER RETENTION BUILDING OUTPUT

SECTION B SCALE 1/8”:1’ building + landscape inputs + outputs integration WOODWORKING

POPLAR BROKEN INTO WOOD CHIPS

MBAR

LU

OR

LE YC C

FLO

RE

INPUTS FROM LOCAL SITE

PLACED INTO NEW PANELS

CL T PA N E L S PROCESSED INTO CLT PANELS MINIMIZE WASTE EXPORT ZONE

INPUTS FROM DISTRICT SITES

SECTION C SCALE 1/8”:1’ production integration

+0

+0 +0

+6 +11

+11

sorted STONE

+11

CONTAMINATED SOIL dispersed on site

COMPOST

CLEANED SOIL +0

+5

+12 +3

+16

DRAINAGE grading

+11

HARVEST

+11

POPLAR PLANTINGS

off

HARVEST every 3 years

E1

+5

HA RV EST

dro po ff

up

OS

Tp

ick

rop MP

CO

CO

+0

OS

+11

MP

MACHINARY access

Td

CLEANED SOIL

t PH AS

+6

pos

HARVEST seasonally

com

excess compost

EXP OR Tp ick up

+7

+10

com pos t PH AS E1

+11

com CH pos AN t P NE HA L H SE EAT 2 ING

GROWTH

CLEANED SOIL

+0

CONTAMINATED SOIL dumping ground

INTERCROPPING with established poplars

POPLAR PLANTINGS 12x10 grid

TRUCKING ACCESS

SITE PLAN maintenance regime

STAGING OF SURFACES bridging residential and industry

uncertain factors of tidal influx and change in industry

uncertain factors with contamination from industry N

80Õ

TIO

CHIPS FOR PULPWOOD 12ÕX6Õ GRID, HARV 8-10 YEARS 30Õ

A

N AI

BIOFUEL, BURNING 10ÕX3Õ GRID, HARVEST 3 YEARS

MT

E AS

IN

CO

RE

C

IN

CONDENSED FOOTPRINT

EXTREME FILL

POPLAR for energy COEXISTING INDUSTRIAL + RESIDENTIAL

RAPID POPLAR PRODUCTION

EXTREME CUT

INDUSTRIAL HARVESTING

EXTREME CUT INCREASE IN FLOODING ANTICIPATION OF SEA LEVEL RISE

ANTICIPATION OF SEA LEVEL RISE

SCENARIO A

SCENARIO B

COMMERICAL // FLOOR 4 + 6

RESIDENTIAL // FLOOR 4 + 6

1-BEDROOM

1-BEDROOM

1-BEDROOM

1-BEDROOM

STUDIO STUDIO

STUDIO STUDIO

3-BEDROOM M

W

M

3-BEDROOM

W TRAVEL DISTANCE = 125’ - 0”

LOUNGE STORAGE

A

COMMERICAL MECHANICAL

B

STORAGE

A

RES. STORAGE

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 8 CAPACITY: 220

B

RES.STORAGE

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 6 CAPACITY: 220

1-BEDROOM 1-BEDROOM

2-BEDROOM

2-BEDROOM

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 8 CAPACITY: 220

COMMERICAL // FLOOR 3 + 5

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 6 CAPACITY: 220

RESIDENTIAL // FLOOR 3 + 5

1-BEDROOM

1-BEDROOM

1-BEDROOM

1-BEDROOM

STUDIO STUDIO

STUDIO STUDIO

3-BEDROOM M

W

M

3-BEDROOM

W TRAVEL DISTANCE = 165’ - 0”

TRAVEL DISTANCE = 119’ - 0”

TRAVEL DISTANCE = 122’ - 6”

LOUNGE STORAGE

STORAGE

RES. STORAGE

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 15 CAPACITY: 220

INDUSTRIAL

TRAVEL DISTANCE = 117’ - 6”

2-BEDROOM

RES.STORAGE

1-BEDROOM

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 9 CAPACITY: 220

1-BEDROOM

INDUSTRIAL

2-BEDROOM

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 9 CAPACITY: 220

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 15 CAPACITY: 220

CAFE 1-BEDROOM

LOBBY

LEASING OFFICE

1-BEDROOM

LOBBY 1-BEDROOM

1-BEDROOM

FRONT DESK

B

A

INDUSTRIAL

TRAVEL DISTANCE = 148’ - 0”

MECHANICAL

A

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 7 CAPACITY: 220

B

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 5 CAPACITY: 220

INDUSTRIAL

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 7 CAPACITY: 220

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 5 CAPACITY: 220

B

A

A ARANCE: 33” - 0” UPANTS SERVED: 2 ACITY: 220 B ARANCE: 33” - 0” UPANTS SERVED: 4 ACITY: 220

RESIDENTIAL PERSPECTIVE

WEST ELEVATION SCALE 1/16”:1’ residential / commercial

EAST ELEVATION industrial

SCALE 1/16”:1’

SCALE 1/10”:1’

PLANS

COMMERICAL // FLOOR 4 + 6

RESIDENTIAL // FLOOR 4 + 6

1-BEDROOM

1-BEDROOM

1-BEDROOM

STUDIO STUDIO

3-BEDROOM M

W

M

TIMBER TOWER + POPLAR PLANTATION

1-BEDROOM

STUDIO STUDIO

3-BEDROOM

W

MOLLY MCNALLY + KATIE LAUGHINGHOUSE

TRAVEL DISTANCE = 125’ - 0”

LOUNGE

A

STORAGE

COMMERICAL MECHANICAL

B

STORAGE

A

RES. STORAGE

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 8 CAPACITY: 220

B

RES.STORAGE

1-BEDROOM 1-BEDROOM

2-BEDROOM

2-BEDROOM

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 8 CAPACITY: 220

COMMERICAL // FLOOR 3 + 5

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 6 CAPACITY: 220

RESIDENTIAL // FLOOR 3 + 5

1-BEDROOM

1-BEDROOM

1-BEDROOM

1-BEDROOM

STUDIO STUDIO

STUDIO STUDIO

3-BEDROOM M

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 6 CAPACITY: 220

W

M

3-BEDROOM

W TRAVEL DISTANCE = 165’ - 0”

TRAVEL DISTANCE = 119’ - 0”

TRAVEL DISTANCE = 122’ - 6”

LOUNGE STORAGE

STORAGE

RES. STORAGE

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 15 CAPACITY: 220

INDUSTRIAL

TRAVEL DISTANCE = 117’ - 6”

2-BEDROOM

RES.STORAGE

1-BEDROOM

INDUSTRIAL

1-BEDROOM

2-BEDROOM

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 9 CAPACITY: 220 EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 9 CAPACITY: 220

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 15 CAPACITY: 220

CAFE 1-BEDROOM

LOBBY

LEASING OFFICE

1-BEDROOM

LOBBY 1-BEDROOM

1-BEDROOM

FRONT DESK

B

A

A

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 7 CAPACITY: 220

INDUSTRIAL

MECHANICAL

B

EXIT A CLEARANCE: 33” - 0” OCCUPANTS SERVED: 5 CAPACITY: 220

INDUSTRIAL

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 7 CAPACITY: 220

TRAVEL DISTANCE = 148’ - 0”

EXIT B CLEARANCE: 33” - 0” OCCUPANTS SERVED: 5 CAPACITY: 220

COMPOST TO RADIANT HEATING

BUILDING INPUT RAIN WATER

BUILDING OUTPUT ORGANIC WASTE

BUILDING OUTPUT GRAY WATER

STRAW INSULATION ALTERNATING “GREEN” + “BROWN” LAYERS FROM POPLARS STICKS + BIOMASS

VENTILATION BUILDING OUTPUT

BUILDING OUTPUT SAW DUST

GRAYWATER USED FOR IRRIGATION

LANDSCAPE OUTPUT COMPOST HEAT

ANTICIPATION AND COLLECTION OF RUNOFF

BUILDING OUTPUT BUILDING OUTPUT IRRIGATION

MOIST SOIL

LANDSCAPE OUTPUT PHYTOREMEDIATED GROUND WATER

WATER RETENTION BUILDING OUTPUT

WOODWORKING

BROKEN INTO WOOD CHIPS

INPUTS FROM LOCAL SITE

FINISH FLOOR

PLACED INTO NEW PANELS

PROCESSED INTO CLT PANELS

ALUMINUM SHEATHING

MINIMIZE WASTE EXPORT ZONE

GROOVES FOR PIPES INPUTS FROM DISTRICT SITES

CLT PANELS

integration FRAMEWORK FOR EXPANSION

BEAM SECTION

COMMERCIAL / RESIDENTIAL

DOUBLE HEIGHTED SPACE LOCAL PRODUCTION

JOBS

TERRACE

OCCUPIABLE CLEAN SOIL COMPOST CLEAN SOIL SOIL

PROTECTION FROM CONTAMINATION

TRUCK DROP OFF

COLUMN TO BEAM

CONTAMINATION

FACADE ASSEMBLY

Our manifesto was to design a building that would seamlessly fit into the cyclical nature of poplar trees and the process of growing, harvesting, and then converting them into their next life. This could be as lumber for structural purposes, CLT for interior partitions, woodchips for compost to heat the building, or nutrients to be returned to the soil for the next generation of poplar trees to grow. The building itself supports this process by being designed as industrial manufacturing space with the flexibility of being turned into housing should the urban footprint be condensed and housing and manufacturing must coexist. The structure is simple to construct and just as easy to disassemble to promote the ideology of an ever changing and growing building. The restrained palate of wood and concrete emulates the surrounding poplar plantation that supports the growth of the structure and system.

Katie Laughinghouse + Molly McNally Michelle Laboy // Scott Bishop

Katie Laughinghouse + Molly McNally Michelle Laboy // Scott Bishop

Katie Laughinghouse + Molly McNally Michelle Laboy // Scott Bishop

Katie Laughinghouse + Molly McNally Michelle Laboy // Scott Bishop