Bui_Graduate Research & Design Project

Page 1

URBAN x INDUSTRIAL ECOLOGY CANNABIS SATIVA: Statistics $10.7 Billion is spent on prohibition every year

48%

89%

of prisoners for possesion only ...while the marijuana market is worth over $36 Billion

of prisoners are non-violent drug offenders

Legalization of marijuana

Decrease in arrests

U.S. Marijuana Possession Arrest % 2011-2015

50% 40% 30%

Estimated gain from cannabis coffee shops, natural medpot products, and industrial hemp products with the legalization of marijuana.

$7 Billion

20% 10% 0%

$4.5-6.0 billion

$6.0

$3.1-3.6 billion $2.8-3.3 $3.6-3.9 billion billion $2.5-3.0 billion $1.3-1.5 billion

$4.0 $3.0

$1.5 billion

$2.0

2012

2013

2014

2015

2016

2017

2018

Marijuana in Colorado

U.S. Marijuana Sales Estimates 2011-2018

$5.0

2011

Results after the first 6 months of legalization 10.6% Less Property Crime in Denver 60% Fewer Homicides in Denver 5.6% Less Violent Crime in Denver $12-40 Million Saved Each Year In Enforcement Costs

$1.2-1.3 billion

10,000 Jobs Created in the Marijuana Industry

$1.0 $0.0

2011

2012

2013

2014

2015

2016

2017

U.S. Marijuana Legalization Status

2018

Deaths per year by substance 39,701

443,000

0

Shifting U.S. Public Opinion on the Legalization of Marijuana 1969 12% YES 84% NO

2014

Marijuana Legalization Status in New England Medical Marijuana Legalized Marijuana Legalized for Recreational Use

47% NO

51% YES


URBAN x INDUSTRIAL ECOLOGY CANNABIS SATIVA: Uses

CANNABIS SATIVA

HEMP

MARIJUANA

4.Kernels & Shells Seperating

1.Harvesting

4.Bailing

SEEDS 2.Cleaning

Feed Baking Additive

Confections

Cooking Additive

Paints

Salad Dressing

Fuel

Fabric

Paneling Insulation

Detergents

Dietary Supplement

Non-dairy Milk

2.Retting/ Decortication

FIBERS

Body Care Products

Beer Snacks

4.Storage

Spreads

Pulp & Paper

Animal Bedding

MALE & NON-CULTIVATED FEMALE PLANT

Auto Parts

2.Trimming Buds

3.Curing

RECREAT -IONAL Relaxation

Pallets

Recycling Additive

1.Harvesting FLOWERS

3.Curing

OILS

NUTS Flour

1.Harvesting STALK

3.Dehulling

Dietary Fiber

THC 10%

THC = Tetrahydrocannabinol

THC<1%

MEDICAL ADD& ADHD Migraines

CULTIVATED FEMALE PLANT

SEEDS - Industrial products - Foods - Body Care FLOWER - Marijuana -Edibles

LEAVES - Animal Bedding - Mulch & compost

LEAVES - Animal Bedding - Mulch & compost

STALK - Textiles - Paper - Industrial Textiles - Building Materials

STALK - Textiles - Paper - Industrial Textiles - Building Materials

ROOTS - Compost & Nutrients

Cancer

Multiple Glaucoma Sclerosis Tourette’s Seizures and OCD Chronic PMS Diseases

The reason for the low THC content in hemp is that most THC is formed in resin glands on the buds and flowers of the female cannabis plant. Industrial hemp is not cultivated to produce buds, and therefore lacks the primary component that forms the marijuana high.

POLLEN SACS

Alzheimer’s

ROOTS - Compost & Nutrients


URBAN x INDUSTRIAL ECOLOGY CANNABIS SATIVA: Sustainability Seed broker

4x the CO2 of trees

Grower Cultivator Trimmer

exceeds $300 million in annual retail sales

Distributor Tester

Seller Shop owner Receptionist Security Brand ambassador Delivery

Little fertilizers are required

CO2 O2

Maker Baker Extractor

(Photosynthesis) Packager Graphic designer Marketer Warehouse worker

P

N

K

years

20 4 for trees to mature

1 ACRE OF HEMP

Help Eliminate Greenhouse Gases

Eliminate Forest Exploitation

1,000 GALLONS OF FUEL

Bio-Fuel Better than Ethanol

CANNABIS SUSTAINABILITY

for hemp

-Eliminate the need to chop down BILLIONS of trees

Disease & Pest Resistant

Green Jobs

mths

Consumer

Hemp breathes in

-MILLIONS of acres of forests and huge areas of wildlife habitat could be preserved

x8

x3

Food Resources Durable products

Non-Toxic Material Products

UV protective

1 ACRE OF HEMP

4 ACRES OF TREES

3x

more durable than cotton. - reduce by one third the resources 1 ACRE OF HEMP

HEMPCRETE

Fiber

4

HEMP + LIME + WATER

Iron

CARBON NEGATIVE

Zinc

21

Protein

21

BREATHABLE STRONG FLAME-WATER-PEST RESISTANT

R-30 ENERGY EFFICIENT

Magnesium

15

45

% DAILY VALUE IN 1OZ HEMP SEED

3 ACRES OF COTTON

HIGH IN

LOW IN

Omega-6 fatty acids

Carbohydrates

Omega-3 fatty acids

Calories

Leucine Threonine Isoleucine Valine Histidine Methionine Lysine Tryptophan Phenylalanine

9 ESSENTIAL AMINO ACIDS


URBAN x INDUSTRIAL ECOLOGY CANNABIS SATIVA: Cultivation CANNABIS GROWTH CYCLE

85°F 60°F

DRYING& CURING O

WI

AY

JUN

OC T

A

S U M

UG

M E R

SEP

APR

S PR I N G

SEED HARVEST

ER

MAR

FA LL

N

NT

Water Vapor

SEED SEEDLING

M

HARVEST

JAN B FE

V

DEC

CO2 VEGETATIVE

JUL

FLOWERING STALK HARVEST FOR HEMP FIBER

N

N

P

P

K

K

Low FLOWERING

VEGETATIVE

High N

H2O

K

20% Clay

CO2

High

Zn

O2

N P

P

K

K

H C

IDEAL NPK LEVEL Low

O

O2

3-4 feet average

B

N

Mg

K

Ca

Si

Mo

S

Cl

40% Silt

Co

K

P

40% Sand

Cu Fe

pH= 5.8 and 6.5 Mn

2 months

7-8months 200-watt CFL lamps

250-watt HPS lamp

6.5 ft

6.5 ft

1.5 ft

1.5 ft 3.5 ft

3.5 ft

1.5 to 2.0 oz

3.0 to 5.0 oz 1000-watt HPS lamp

600-watt HPS lamp

400-watt HPS lamp

8 ft

8 ft

7 ft

6.5 ft 6.5 ft

17.5 oz

4 ft

3.5 ft 3.5 ft

4.5 to 9.0 oz

5 ft

4 ft

5 ft

5.0 to 10 oz

9.0 to 18 oz


URBAN x INDUSTRIAL ECOLOGY THESIS

Traditional Industrial Ecology aims to reduce ecological damage caused by industry while maximizing efficiency of production processes. (such as through lesser use of energy, material, and water, more recycling, and elimination of hazardous emissions by-products, encouraging innovation, resouce efficency and sustained growth. Production

s

(les

) d e t rac

t x e es

rc

u o s e r

(by-products)

Secondary Production

Consumption

(recycling)

(m

inim

Secondary Consumption

al w

) e s u (re

ast

e)

My study is on an industrial ecology within an urban environment. My approach is to propose an integration of industrial processes and natural urban operation to generate a diversed and dynamic industrial ecology. Using my research on the industrial and recreational uses of cannabis plants, I believe cannabis production can potentially create a sustainable network of processes that support a city and link business together. This plant can be grown for industrial use of hemp and also recreational use of marijuana. All parts of the plants can be used for many things like edibles, medical marijuana, animal beddings, fabrics, fuels, building material, and paper. Much of its by-products can be used for other industrial processes similar to the concept of studied industrial ecology. I explored Holyoke of Massachusetts as a potential site to develop an industrial ecology within this urban landscape. Holyoke was one of the first planned industrial communities in the United States and was known as the Paper City for its big production of paper in the 19th century. Although the industry has changed and now the city has more than 1.5 million square feet of vacant mill space downtown, it is an opportunity to reuse its existing facilities to support cannabis production. The existing canal in the landscape will be the driving element of the industrial processes to generate a dynamic network of industrial ecology in Holyoke.


URBAN x INDUSTRIAL ECOLOGY PRECEDENT: Chemical Cluster Delfzijl Delfzijl N

Netherlands

2

miles

Nitrogen Steam Instrument air Zawzi Industrial water 0 Delesto

Teijin Aramid

Akzo

400 800

Bio MCN

Lubrizol JPB Delamine ChemCom Industries Dow Benelux

Eneco Peroxy Chem

North Water

EEW

Aldel Zeolyst

Siniat CLD KBM PPG GSO

ESD-SIC

North Finery


URBAN x INDUSTRIAL ECOLOGY SITE STUDY: Holyoke, MA

NORTHAM PTO N Nort

HADLEY

h

SO UTH HAD LEY

Purple Heart SO UTHAM PTO N

116 Nort hampton

HOLY O KE

Be ec h

141

Hom este ad

C h e rr y

New Apremont

5

ld e i tf s We

CHICO PEE

116

Main

W EST FIELD

le Riverda

W EST S PRING FIE LD

141

y b n a r G


URBAN x INDUSTRIAL ECOLOGY SITE STUDY: Holyoke Access Study Brattleboro

Northfield

Greenfield

Old Vermonter Route

New Route Reopened in 2015

- The return of passenger rail service to the city for the first time in nearly 50 years

Amherst Northhampton

- The Vermonter runs from Washington, DC to St. Albans, Vermont, making stops to cities including Philadelphia, New York, Hartford, and Springfield.

Holyoke Palmer Springfield

Amtrak Intercity Train Station 0

Existing Rail Tracks Waterway

141

LINDEN ST.

5

HAMPDEN ST.

116 LY M

DWIGHT ST.

AN

DW ST .

IG

EN

AP

LI

ND

PL

CA

BO

AN

B

ST .

RG

EA

NT

. ST

ST .

L A N

CA

RA

ST . GH ST . N AI

M

NORTHAMPTON ST.

HI

M

AP

LE

CHERRY ST.

IN

SA

ST .

CE

H

C EE

KL

T

ST .

ST .

FR

ET ON

ST .

ST .

W

HT

ST .

JA

CK

SO

N

ST .

116

. T S

1000

2000


URBAN x INDUSTRIAL ECOLOGY SITE STUDY: Existing Conditions THE CANAL

ABANDONED MILLS ALONG CANAL

DWIGHT ST.

141

LY M

AN

DW

IG

. T S

CA

BO

RG

ST .

TS

T.

ST .

ST . CE

ST .

H IG H

ST .

PL E

ST .

NT

A

N

M

SO

EA

ET ON

ST .

SA

CK

ST .

N

H C E

. T S

BE

JA

ST .

M AI

N

LI

116

PL

RA

N E D

AP

HT

OTHER ABANDONED FACILITIES

L A N

. T S

CA

0

400

1000

Amtrak Intercity train station Existing Rail Tracks Fully Abandoned Building Vacant Lot

116

Active Site (Relates to Paper) Active Site (Nonrelated to Paper) Land Zoned for Industrial Use


URBAN x INDUSTRIAL ECOLOGY

SITE STUDY: Holyoke Canal System and Hydro Power Hydro Power/ Hydroelectric Power Flowing water creates energy that can be captured and turned into electricity.

Reservoir Powerhouse

Head (the higher the more energy)

Generator Intake Penstock Turbine

River

PROPOSA

The Holyoke Canal System is a three-tiered, 4 ½ mile system that runs throughout downtown Holyoke and provides water to approximately 11 in-service generating stations which have a total combined capacity of approximately 15 megawatts.

Holyoke Carbon Footprint is less than one tenth of that of an average utility in New England. In 2015, 31.64 lbs of carbon dioxide per MWh – with the average utility in New England emitting 625 lbs of carbon dioxide per MWh. Nearly 68% of HG&E’s generation comes from renewable sources (i.e. hydro and solar), with an additional 26% coming from carbon-free sources. This results in annual retail electricity sales that are on average, 94% carbon-free.

11’-5”

THIRD

11’-3”

FOURTH

12’-11”

ROOF PEAK ROOF

FIRST HEAD RACE

0

5

10

20

TAIL RACE

10’-9”

SECOND


URBAN x INDUSTRIAL ECOLOGY

Production Precedents & Proposed Networks HEMP OIL PROCESSING FACILITY+OFFICE Canada (35,000 sq.ft of processing facility)

HEMP FIBRE PROCESSING PLANT North Carolina (70,000 square feet under roof, on 9 acres of land)

1. Bale feeder 2. Bale/Straw cutter 3. Straw opener 4. Decortication 5. Dust Separation 6. Fibre cleaning 7. Fibre baler 8. Hurd/shive cleaning 9. Air cleaning

HEMP PAPER PROCESSING FACILITY

MEDICAL MARIJUANA LAB

Medical Marijuana Lab Hemp Fabric Production Hemp Oil Production Hemp Paper Production


URBAN x INDUSTRIAL ECOLOGY

PROPOSAL: Connection & Relationship Studies PUBLIC ACCESS THROUGH GREENHOUSE 2. Public access on ramp and through the greenhouse

1. Public access under the greenhouse

3. Public access through the greenhouse at certain times

Open to the public

Closed to the public and open for internal vehicle operation

1:20

1:20

PARTNERSHIP + EXPANSION

1. Connection

2. Expansion

3. Interweaving


URBAN x INDUSTRIAL ECOLOGY PROPOSAL: Master Plan

0’

250’

1000’

0’

40’

100’



URBAN x INDUSTRIAL ECOLOGY PROPOSAL: Renders

1

These are the visions of this loop of hemp and marijuana greenhouse punching through the urban setting of Holyoke. At some moments, the greenhouse connects to the existing infrastructures and facilities to activate the abandoned. At some other moments, the greenhouse is elevated to generate a space for the public to engage with the waterfront.

5

2

3

4

1

2


URBAN x INDUSTRIAL ECOLOGY PROPOSAL: Renders (Continued) 3

4

5


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