UCB portfolio

Page 1

LI YAN portfolio

2021

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00 Table of Contents

urban design play in cool

|

baltimore, maryland

1-4

regional design control the water

|

state college, pennsylvania

5-8

natural reserve take off

|

magombero forest, tanzania

9-12


01 Play in cool

An outdoor park that provides cooling for children to play, Baltimore MD Fall 2019 Individual Project Instructors: Marc Miller, Travis L Flohr

Urban heat is a serious and growing threat to public health, and the warming climate only increases the problem. Baltimore’s urban area is covered with a high rate of impervious surface and fewer canopy trees, which raised the surface temperature, especially in the region with a high poverty rate. Hot temperature brings higher levels of pollutants into the air and triggers asthma symptoms, particularly in the children’s group. My design aims to give back the outdoor playground to the children in the neighborhood by creating an exterior space where a region with hot air and a high asthma disease density. My design intent is to create a park that functions as an outdoor cooling space for children. So, children can play in a clean and pleasant outdoor environment during a hot summer day. To materialize the climatic condition, the project is invented by a catalogue of climatic devices, both natural and artificial. They function cooling and de-polluting. These devices are classified into three elements: Shade, water, wind. A healthy outdoor gathering space plays an influential role in enhancing big metropolitan cities’ well-being and health. It is an outdoor area where you can have a good time from the excessive heat and moisture; where you can relax from pollution and noise; where you can have fun in the open air with children.

1


ASTHMA PROBLEM

SUITABLE LOCATION 8.6% US

37,6650 =

9.4% US

12.4%

+

Adult cases

Asthma cases in Baltimore

10.5

20%

Million

Children cases

+Area without park

$3,266 Yearly

Missed days of school because of asthma

+Impervious surface(>35%)

Cost of asthma

+Canopy cover(<25%)

ASTHMA FOCUS Highest temp in the city (95 -103°F)

+Children(6-11 years old) Asthma hospitalization (49-92 per 10,000 ppl)

Low house income ($25,000-30,000)

Children rate 6-17 year old (>25% coverage)

+Poverty(>35%)

Heat (>33 °C)+ Asthma(>400 patients) Canopy cover (<35% coverage)

PROPOSED INTO THE COOLING

Impervious surface (>45% coverage)

Area without park

SITE ANALYSIS Land use

50’

Residential Industry

Sun (June)

Wind direction (June)

School Commercial

Summer Wind

Circulation

Summer sun Winter sun

Shade analysis

Street scape

Bike path

-10am, 12am, 14pm, 16pm and 18pm

Worker path Two way road

35°C

COOLING PARK STRATEGY

ATOM PAVING

HEAT TRANSFER 28°C

37°C

37°C

Paved surfaces

Convection

37°C

Wind

Wind tower Water cycling wind tower Breeze sitting Interactive fountain

Evaporation: Loss heat by evaporation of water

Conduction: Heat transfer from the hot skin to cooler air through direct contact

Convection: Breeze facilitates convective heat loss from the skin

Moving atom

Paving

Lack of vegetation cover

Conduction

Summer sunlight

10‘

Vegetation fence

Water

Heat URBAN HEAT ISLAND

Shade Heat triggered Chemical

Heat-generating human actives

Lighting Wind tower b Mist cooling system 2.5’ Tree pit

a

a’

b’

Rotate sitting 1-1.5’ Depth pool Wind tower a Dark stone steps Stepping stone Multi-functional canopy tents Fountain facility Amphitheater sitting Interactive fountain Stone sitting Ultrasound speaker Bicycle parking Concrete paver White permeable paver

Canopy tree Little Leaf Linden tree plaza Breeze canopy

Antimicrobial Material Ultrasonic speakers Stimulating nature sound

Mosquito City noises

Architecture style

SITE DIAGRAM Circulation

Multiple entrance for different group of people.

Tree

90% area is covered with fast growth and depolluting trees

Vegetation

60% area is covered with lawn and de-polluting plants

Paving

Bike path Children

Worker Biker

View

Trees

50’ wind tower is clearly visible to observe from far away

De-polluting plants

Sound

Stimulating nature sound that attracts neighbors.

Lawn

b Landmark visual

2

Cooled De-polluted Enjoyable park

De-polluting plants De-pollution

Pollutants

Raised mount

Breeze pool Mist cooling mount

Water sound


POLLUTION

VOCs CO

CO C8H10

CO2

NOx CO2

C7H8

Stimulating nature sound Sound of city is emitted stimulating water sound to neutralize the noise.

SO2

De-polluting plants Capture dust and pollution in the air

KEY SPECIES

TiO2 Photocatalytic coating The breeze canopy made of photocatalytic material which absorbs light to occur chemical reaction to decomposes several particles in the of the pollution in the air, meanwhile, provide shade and cooling system (hydrologic cycle)

BREEZE CANOPY MATERIAL

BREEZE CANOPY PLACEMENT

44’

BALTIMORE UTC-5 HOURS 12:00PM

Lady’s mantles Alchemilla

Common ivy Hedera helix

Spider plant Chlorophytum comosum

Ultrasonic speakers Mosquito-free environment

20’

3:00PM

2:00PM

June

1’

Canopy tent European hackberry Devilwood Osmanthus Celtis australis

55’

Littleleaf linden Tilia cordata

Curved rebar inner structure

Concrete

2’

Removable Stepping stone Maidenhair tree Ginkgo biloba

Turkey Oak Quercus laevis

Norway maple Acer platanoides

SUSTAINABLE WIND TOWER

July

1’

TiO2 Photocatalytic Coating Antimicrobial effect Self cleaning Long-life (>3 years)

White Stone

August

10‘

1’ Depth pool Warm wind

Warm wind turn cool Water collected from rain

Multi-functional canopy tents Cool air

Spreading board

50’

10 ’

7 8

6

9

22

10

21

20

INTERACTIVE FOUNTAIN DEVICE

Breeze sitting area

Sustainable Wind tower

Tree plaza

11

19

12

7

5 6

4

1

Rain water is18collected in to water tank

2

Water tank

3 2

Water is pumped into the 16Pressure15 charging system

4

Pressure charging system Pressure on non-slip bounce step Pressure both side to trigger the switch Water releasing

6 7

PARK SEASONAL FUNCTIONS Tree plaza Wind tower

13

14

3

5 1

17

Mar

Winter

Spring

Breeze canopy

Little Leaf Linden tree plaza Wind tower

Mist cooling mount Interactive fountain Breeze pool

Breeze canopy Dec

Mist cooling mount

June

Interactive fountain Breeze pool ice rink

Ice rink De-polluting structure De-polluting plant Ultrasonic speacker Sitting

Depollted material Dpollted plants Ulture sonic Sitting

Summer

Fall Sept

3

Breeze pool

Removable stepping stone


HEAT

Breeze Collects clean air from 50 feet air, through the wind tower, and give breeze to the ground.

Canopy cover Canopy tree creating shadowed spaces

WIND TOWER a-a’

Mist cooling system Produce fine droplets lowering the ambient temperature around the misted area

H2O pump

High thermal inertia material Ability of materials to store heat and give it off slowly, maintains a relatively fixed and comfortable temperature throughout the hot day

BREEZING SITS

10‘

Stone sitting Off-site building Raised mount

50’

10 ’

Spreading board

Wind tower a Pedestrian

Two way road

PARENTS AMPHITHEATER SITTING

Pedestrian Wind tower

Breeze sitting area

MIST COOLING MOUNT

Tree plaza

HIGH THERMAL INERTIA MATERIAL -Reclaimed wood from local -Comfortable to sit -Easy to replace -High thermal inertia

-Aluminum -Lightweight -Cool feeling -Higher strength-to-weight ratio than steel

TREE GROWTH RATE IN 5 YEARS -24-36” PER YEAR

Year 3

Year 5

PARENTS WATCHING AMPHITHEATER SIT Canopy & water plaza

3’

6 24’

1 1’4” 8’

6’

Year 1

14’4” Open lawn

ROTATING SIT 8’2” 1’6”

4

Mist cooling mount


02 Control the water

Spring Creek Watershed runoff study & strategies response, State College, PA Spring 2019 Individual Project Instructors: Stephen Mainzer, Hong Wu, Travis L Flohr

The growth of the population plays a vital role in influencing water quality in the spring creek watershed. The community has increased from 12% from the 2000 Census to 2010, and the population will increase by over 22% from 2010 to 2040. While in state college, 1946, the community was only 7,000 residences and 7,000 students at Penn State. At present, at Penn State, more than 50,000 students are living here. “That’s a doubling every 23 years, just over a 3% annual rate of growth.” The urban area is snowballing.

My design intends to reduce, collect, and treat the warm & polluted urban runoff from the upper stream’s impervious surface to address the Thermal Pollution.

Rapidly Urbanization contains a high proportion of impervious surfaces in Spring Creek Watershed. Part of the impervious surfaces is near the stream. After a storm, pollutants on the paving surface will directly flow into the creek due to the impervious surface. In addition, paving is directly exposed under sunlight will become hot, which will cause warm runoff into the stream when there is rainfall, raising the stream temperature. Class A trout and other aquatic life are disturbed living under thermal pollution and polluted runoff. Thermal pollution will upset the life in the water, such as, oxygen decreases in the warm water due to the cold water dissolve more oxygen, which fish began to experience stress, suffocates creek animal such as trout. The best growth for rainbow trout is about 69 degrees; they will stop growth excess 73 degrees and have trouble surviving when the temperature is over 77 degrees. Address the problem from upstream is the most efficient way to maintain the stream temperature from urban runoff.

5


2020

2005

1900

At least 16 pollution incidents that killed 100 or more fish.

Schueler proposed that imperviousness could serve as a unifying theme to quantify the degree of urbanization.

1994

1913

1946

The Penn state community was only 7,000 residences

The Pennsylvania State University built the first wastewater treatment plant in the watershed

Pollution increase to 10,000, yet no wastewater treatment facility.

WATER QUALITY (TEMP)

More than 50,000 students are living here in Penn state

2040

Expected thermal pollution Lifespan

History line

SUITABILITY LOCATION

Pollution in storm water runoff causes 19,000 miles of streams and rivers do not meet water-quality standards.

2015

During the months of June through September 1999 to 2007, an average of 22 Storms per year produced hourly increases of >2°C, and the mean increase for these storms was 3.7°C. The highest hourly increase was 9.6°C

2007

Wild brown trout was being negatively affected by high sediment loads originating from agricultural land and urban runoff.

1990

1903

1912

State Correctional Institution discharged raw sewage into Spring Creek.

Large springs in Pleasant Gap led to the establishment of the first trout hatchery First trout hatchery

PROBLEMS

Built Environment -Built environment is the crucial issues in Spring Creek Watershed that cause and increase the urban runoff, which raised the water temperature of the stream. Impervious surface exceed 60 percent is the suitable location for my design.

Summer temperature average 85.6 °F

2/3

40%

Lethal to trout 72 °F

In Penn State campus

Of total

35%

Hydrology -The design will maintain healthy water by decrease the impervious surface and increase the ground cover to retain health water temperature for aquatic life, which hydrology is one of the essential elements. Impervious surface around stream is a suitable location for design.

Established 1.1 million cu.ft Summer season runoff

Impervious Surface

62%

Vegetation Cover -Plant can be a most effective way to decrease the urban runoff and surface temperature, it can provide shades from water surface exposed from sunlight, it is necessary that impervious surface is covered with vegetation.

Trout cease growing 67 °F

Urban Runoff

Deforestation

25%

837

Impervious surface 344.2 arc

3.5 million cu.ft

1 year storm Part. 40%

Capacity of end of pipe

State college annual drainage

2.4 million cu.ft

2 year storm Part. 70%

Fresh flooding Carries polluted warm runoff into creek

344.2 arc Roofs

Total Penn state student 40,639

Acres in 8 years

Ongoing building construction 9 spot

Pollutants lethal to human,trouts Pesticides, oils, heavy mental, salts...

POTENTIAL PROBLEM

Deforestation

+

Piping

+ Hot roof runoff

Storm

Flow velocity

Sediment erosion

+ Hot paving runoff

+

State college urban sprawl

+

Peak flow

Thermal pollution

Warm, polluted runoff

Spring creek downstream ecosystem

+ Impervious surface

Flooding

Strom capacity

RUNOFF STRATEGIES Vegetation

System 1

Impervious surface

Roof

Green roof Cool roof

Cool

+

No vegetation cover

Summer sun

Permeable paving

Hot surface

Permeable surface

System 2 Rain

Turf paving

Parking lot Vegetation cover

Hot runoff

Rain garden Canopy cover

System 3

Near stream

Vegetation cover

Riparian buffer

Excess runoff

System 4

Peak flow

Drainage destination

6

End of pipe

Control Retened Detented Infiltrate Filtrate cooled Treated

Safe release to spring creek


PLANNING

100‘

Site

Legend:

System 1:

Runoff direction

System 2:

Parking lot strat

UPSTREAM BUILT ENVIRONMENT IMPLEMENT CONNECTED

Green roof strat

System 3:

Cool roof start

PIXELATED

Multi-scale flow diffusion throughout the creek to create a buffer and prevent polluted warm runoff into channel

System 4:

Riparian puffer start

End of pipe

CLUSTERED

Vegetation within a community help absorb and recharge runoff water

Vegetation distribution throughout the system, especially in the dense downtown area.

PIXELATED - PARKING LOT LARGE

MEDIUM

SMALL 1

1

3

1 2

3

2

1

Canopy tree provide shades to hot paver on a summer day

Aggregate mulch

Miniature garden control flow and sedimentation function as a infiltration system

Curb cut Asphalt

Mimic the crack between paver to slow down the water

1

Turf paving allow storm water to percolate and infiltrate through the pavement and into the aggregate layers or soil below.

Bedding aggregate Geotexture membrane Turf preamble paving

Water absorption plant mix

PIXELATED - BUILDING ROOF

1

Canopy tree provide cool shade to rain garden

2

Rain garden temporarily hold and soak in rain water runoff from parking lot

3

Preamble paver catches precipitation and surface runoff from the large parking lot

1

2

5

6

of

o nR

ee Gr

2

1

Plants

2

Geotextile Sheet

3

Drainage Cell

4 5

Pacoflex polymer modified asphalt Sheathing felt

6

Concrete deck

4

3

Sun’s radiation hits the roof

2

Roof surface to radiate absorbed heat

3

Some heat is absorbed by the roof and transferred to the building below

f oo

ol R

Co

1

4

Remove, transform, or store nutrients, sediments and other pollutants flowing over the surface and through the groundwater. 3

1

Residential area

3

Wetland vegetation mix

Grass filter strips to help slow and prevent warm runoff into the river, allow water to infiltrate into the ground.

1 2 4

Aggregate mulch Preamble paver

CONNECTED - CREEK STABILIZATION

GREEN ROOF - absorbing rainwater and decrease urban heat island COOL ROOF - reflect more sunlight and absorb less heat than a standard roof

1

3 2

The fraction of solar energy that is reflected by the roof

Roots stabilize the streambank, provides protection against erosion, also creates pools that form unique “micro environments.” 4

2 4 3

Grassland 25’

Woodland 30’

Vegetation along creek provide habitat for aquatic organisms, against erosion and purify the water

CLUSTERED - END OF PIPE CONCEPT Stormwater control: Slow down the runoff rate

Retention: To create sedimentation

Filtration: Advance filtrate through ground system

Phase 1

Slow PLAN

Infiltration: Recharging groundwater

Detention: Reduce peak flow rate

Treatment: Use organic matter, microorganisms, and phytoremediation to metabolize contaminants .

Phase 2

Purify

Phase 3

CONTEXT

100‘

Phase 1

30‘ Stormwater controlled

Retention pool to create sedimentation

Temporarily detain stormwater, releasing it at a predetermined design flow rate.

Concrete base

PSU campus

Phase 2

Water infiltrated through soil, significantly reduced contamination and recharge ground water

Water is filtrated through ground layers to remove sediment and contamination

Soil base Impermeable liner

Prevents infiltration of wastes down into lower aquifers and provides a substrate for root zone

Phase 1

Phase 3

Phase 2

Neighborhood

Phase 3

Replenish aquifer

7

Natural process to improve water quality, ​this process ​has minimal ​ maintenance ​costs

Impermeable basin-bed

Open water transfer the wetland surface into the atmosphere

Water continually treated when releasing


DESIGN DETAIL

Pretreatment & inlet: Four inlets in the exist condition, the pretreatment help mitigate flooding and sediment deposition

-Large sediments are detained when going though the meandering spreader

Erosion zone: Capture & slow surface runoff

Slowing The Curvy path slowing down the water

-Low wall help slow and spread water to enhance vegetation contact -The vegetation both side support water treatment and sediment filtration, meanwhile provide habitat for surrounding organism

Deposition zone: Sink & Recharge waste water

-Vegetation and rocks help reduce the sediment erosion

END OF PIPE - TREATMENT ZONE POND CLASSIFICATION

Less toxic

Photodegradation

NH₃

Decrease

Phytovolatilization

Natural decay

Heavy metal removel and Bio-purification

Pathogen Removel and Bio-purification

Sedimentation

Eliminate the toxic

Proposed water flow The water is filtrated and treated when go though the gap

Maintain purification (low temp) De-nitrification

Limited Filtration

Eliminate

Cattail Typha

Softstem bulrush Schoenoplectus tabernaemontani

Cattail Typha

Soft rush Juncus effusus

Common Duckweed Lemna minor

Water lettuce Pistia stratiotes

Pickerelweed Pontederia cordata

Common water hyacinth Eichhornia crassipes

Common water hyacinth Eichhornia crassipes

Common water hyacinth Eichhornia crassipes

Spikerush Eleocharis palustris

Common reed Phragmites australis

Sedges Carex

Reed canary grass Phalaris arundinocea

Sedges Carex

Soft rush Juncus effusus

N

N

X

O₂

O₂

Knotweed Polygonum

O₂

N

X

P

N

N

X

Water is infiltrated and filtrated through soil N

Common reed Phragmites australis

Cattail Typha

P

Yellow Water-lily Nuphar lutea

Sweet flag Acorus calamus

Spikerush Eleocharis palustris

N

Sweet flag Acorus calamus

Annual beard-grass Polypogon monspeliensis

Organic matter Nutrients Pathogens

Sedimentation

Reed canary grass Phalaris arundinocea

Pickerelweed Pontederia cordata

Existing slope provide drainage for surrounding

Decrease conc

Overflow release

Aeration and Biological Purification

N

BIOLOGICAL PURIFICATION

Cattail Typha

Stormwater flow

Plant uptake

Sedimentation

Rhizofiltration 95% Absorb & hold

Filtration

WATER MOVEMENT

phytofiltration

phytostabilization

Filtration

Plant roots release antibiotics

N₂N₂O

Nutrient Removel P

Small gravel

-A warming environment encourages new species to inhabit “mound”, increase interaction and creates ecosystem. Water is treated and metabolized when going trough each gap.

Volatilization

Predation

Pb, Cr, Cu, Cd, Ni, Zn Rhizome network

Treatment zone - habitat Aquatic plants, Duck, canopy to purify and cool the waste water

-Water is treated and absorb in each block -Ducks renew and create habitats for ecologic system

-The gentle slope bank catch the water flow, and spread the water to the surrounding areas for further treating.

Destroy

Subsurface filtration

Treatment zone - flow: aquatic plants, overflow, Duck, canopy to purify and cool the waste water

P

O₂ O₂

O₂

Vegetation processing of nutrients into wetland vegetation and biofilms

Wetland vegetation inhibits the release of deposited nutrients by bumping oxygen into the soil

Muti stemmed vegetation slowing down runoff velocity, reduce erosion and increasing infiltration X

Overflow pipe Overflow pipe is location at the end of the treatment zone

Plant roots release antibiotics toeliminate bacteria and pathogens

Vegetation absorb and hyperaccumulate metal contaminants in harvestable root and shoot tissue

O₂ N

N

Vegetation provides carbon source and a surface for biofilms to denitrification, removing N from the water

Slowing of run-off. Ponds retain the water in a sequence of basins while the wetland ecosystem cleans the water of impurities.

Circulation

Sitting

View platform

PSU campus

View platform Neighborhood

View platform

Vegetation pond 8

Vegetation pond


03 Take off

A Canopy walkway to educate and raise people’s awareness of the importance of natural reserve, Magombera Forest, Tanzania Fall 2020 Individual Project Instructors: Larry Gorenflo The Magombera Forest cover was estimated at 17.23 km² in 1955. By 2006, the remaining forest area is 10.34 km² and completely isolated from the nearest forest fragment in the Udzungwa Mountains.

Expanding ecotourism can contribute to growth in all the sector and thus contribute to long-term economic growth. So, how to Can we protect the Magombera Forest but also make it accessible to the public?

The forest is a corridor for Africa Elephant. And habitat to over 1,000 endemic species such as Udzungwa Red Colobus Monkey, small fauna, Kilombero Reed Frog, and endanger Magombera Chameleon. Nevertheless, there are over 500 plant species in Magombera Forest. Over 50% of them are globally threatened and restricted in range. That means it’s two times more in proportional compare to UMNP. The reason for the decrease in size is that human activity and increasing population. There are several landowners. Mostly uses for agricultural lands and sugar plantations. Over 30 tribal groups live in this region, home to over 1000 people, and rely on farming. Moreover, taking resources from the Magombera forest created conflict between the forest and human activity.

My intent is to design a canopy walkway that focus on various species in different elevations, especially in birds. The birds’ flighting patterns inspired me; I integrate six flighting patterns into the walkway; each has unique experiences and activities for different groups that tell the story of the local fauna and forest qualities. My goal is to use forest resources to raise people’s awareness of the importance of natural reserve.

The surrounding village is in high poverty. The reported average daily income was 1,344 Tanzanian shillings ($0.58), and the average daily expenditure was 4,384 Tanzanian shillings ($1.89). 77% of respondents feel that their earning are insufficient, and few people get the chance to save money. Look into the Tourism industry. In 2016, 17.5% of Tanzania’s GDP in tourism created nearly 1.2 million jobs in Tanzania; 11% of the country’s labor force is still growing.

9


VILLAGE SEASONAL INCOME CONCERN Month/ season

J

Income generating activities

Agriculture, Small business (Local brew, Kiosks Labors Livestock keeping)

F

M

Income -Bad Months

Low incomes, supplies running out, farm work increase

Income - Good Months

A

M

J

J

A

Livestock keeping, labor trading forest product-timber, firewood, small business.

O

N

D

Livestock keeping, farming small business

Supplies low

Good income is available from farming, fishing and small business

Expenditure - High

Increased living costs

Living costs

Expenditure - Low

Reduced living costs

Seasonal opportunities

Good period for rains and farming season, small business, piecemeal, labor

Market - good months Market - bad months

S

The buyers come to the village to buy crops Market is bad all year; buyers decide to buy crops at the price the price they wish too. They buy crops at a low price during harvest and sell at higher prices in bad months.

BIODIVERSITY HOTSPOT Site

31% Endemic species of indigenous plants 2350

Biodiversity hotspot

20% Endemic indigenous mammals 100 7.7% Endemic species of indigenous birds 100

Magombera Forest

kilombero village

1.2M 100

200M

80 DIFFICULTY INCOME 1M

DEFORESTATION CONCERN

TOURISM OPPORTUNITY 1500M

0.8M

60

730% growth rate of 945,000 visoters

284% growth rate of $1.13B

1,095,000

1.75B

0.6M Tourism is 47% of econmy in Tanzania

40 2006 (10.34 km²)

La ck o Po f fo od or ec La on om ck o f in y Hi gh co me W cos t ai tin of l i g fo ving rh N a o bu rve s sin es ts Hu ma Lac s op p n/ k o an f w a im al ter / Di To se o L as m La ack e ck of uch of tra r ac ns ain ce po ss rta Pr to h tion ob e lem alth se wi rv th wi ice ld life O the r

0.4M

1955 (17.23 km²)

1000M

20 0.2M

00

SPECIES COMPLEXITY

150,000 1990

Emergent (25-35m)

Endangered

Vulnerable

1990

2013

500M

SITE CONDITION Key local species

$615M 2013

1km

Bird species Near threatened

Least concern

small mammals, fish, reptiles, and amphibians.

Not evaluated

Topography

Circulation

-/+Elevation increase on the forest edge +Elevation relative gentle in the forest

+Accessible by two major roads -Train noise

Slope

Neighborhood

-Difficult for construction +Opportunities for interesting view and vista

+Accessible to surrounding communities +Tourism can create jobs for local residents

Hill shade

Views

-/+Hilly topography

+North view: Large agriculture land +South view: Crop land +East view: Forest wetland +West view: Udzungwa National Park & Village view

Understory (<10m)

Canopy (10-25m)

Seeds, berries, fruit

Seeds, berries, fruit, insects, larvae

Insects, larvae, invertebrates

Forest floor

Small mammals, insects, larvae, invertebrates

10


CONCEPT - FLIGHTING PATTERN

Thermal take off (Welcome walkway):

Gliding flight (Curvy path )

Raptors take advantage of rising air to increases their altitude without flapping their wings.

360°

Flapping flight (Bird educate)

Raptors take advantage of rising air to maintain its altitude without flapping its wings.

Bounding flight (Elevated walkway)

is when birds are flapping their wings, allowing itself to maintain height or to climb, this method including down-stroke and up-stroke stage. I’m visualizing the up-stroke in this project.

SITE CONTEXT

Thermal soaring (Birding Walkway)

Gliding flight is when bird against the wind to descend or maintain without flapping their wings. Their path will become curvy because of the uneven wind.

Descending flight (Descend walkway)

Small birds often fly long distances using a technique in which short bursts of flapping are alternated with intervals in which the wings are folded against the body. This flighting method made them going up and down.

°063

Is when birds decrease their altitude and prepare to land.

100m

Master plan

360°

Biomass

Features

Infrastructure

Low EL

High EL

Contour XXX

Elevation

Welcome walkway

Mainroad Branch road Railroad Proposed road Proposed Visitor Center building

Elevated walkway Birding walkway Sitting Curvy walkway Research platform Descend walkway

360°

360° 360°

360°

-The walkway is situated in the preserved forest.

-The proposed road is along the forest edges to avoid the disturbance of the cropland. Visitors will need to go through the proposed visitor center to get on the canopy walkway.

360°

-Seven feature and activities in the project, each has unique experiences 360° and activities for different groups that tell the story of the local fauna and forest qualities.

°063 360°

ZOOM IN PLAN

PHASES

100m

-The route passes through various habitat areas in the forest, blue represents the lowland area, and the area is more moisture, which has a high density of organisms and different habitat from other parts of the walkway.

PROTOTYPE - FEATURE &

100m

Phase1 (272m)

360°

360°

°063

Take off (Welcome walkway) Bounding flight (Elevated walkway) Flapping flight (Bird educate) Gliding flight (Curvy path ) Research platform

360° 360°

360°

b

ACTIVITIES

ay

lkw Wa

Flapping flight (Bird educate) Thermal soaring (Birding Walkway)

fo ov

ab

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ab

0m y (2

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Wa

ing

Sitt

c’

c

m (10

)

und

gro

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Phase2 (382m) b’

Phase3 (566m)

360°

360° Icon legend: 360° 360° 360° 360° 360° 360° observation deck

-The majority of the walkway is placed on gentle slop for easy construction

Flapping flight (Bird educate) Landing flight (Descend walkway) Sitting

°063

rvy

Cu

ay

lkw

wa

360°

ADA Accessible

WELCOME WALKWAY a-a’

Overlook

10m

Instagram hashtag spot

As people going up the ramp, they will experience the different view from each elevation.

Research stair

ed

E

at lev

ay

lkw

wa

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tfo

pla

Sitting Lunch spot

BIRDING WALKWAY b-b’

Research platform Binocular viewer Birding spot

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360°

de Bir

10m

The structure take visitors from 10 meters to 20 meters elevation.

360°

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cat

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360°

me

lco We

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lkw

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Bird habitat area Pram safe

INTERSECTION c-c’

10m

Bird education 360°

Intersection Ramp

Intersection of descending walkway and walkway at 10 meters.

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11

ing Bird

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BIRD EDUCATE DETAILS INSPIRATION

Axonometric

Upstroke stage of flapping flight is used to create an abstract structure that mimic when birds are flapping their wings.

EXTRACTION The structure is painted with colors extracted from one specific bird. Such as the Dark-backed Weaver will be partly painted with black, yellow, and orange. Ten bird education structures in the project will present the most recognizable bird species in the Magombero forest.

Plan

10m

PROCESS

One structure is created with 22 teak wood plank sets; 1 one set is combined with two planks, one shorter than the other, 2 creating a featherlike shape, and 3 by rotating one set 10 degrees in left and 10 degrees up 4 ten times, 5 then 11 on each side to create a spread wing-like shape.

Section

Front

Back 3m

2

3

REPLACEABLE JOINT

5cm

>8 days in wet season >20 days in dry season

5

4 1m

5cm

WEATHERING IRON SIGN

1

15cm

Birding distance diagram

360° observation deck

Without camouflage

Maximizing footprint at top deck

With camouflage

Increasing contact

WELCOME WALKWAY DETAIL 10m

BIRD ATTRACTING SPECIES

BIRDING WALKWAY DETAIL

Upper story (35 m)

10m

Aridan Tetrapleura tetraptera Lap: 3 Slope: 6.2%

Lap: 1 Slope: 5.1% Area: 2826 m²

African locust bean Parkia filicoidea

Ordeal tree Erythrophleum suaveolens

Isoberlinia scheffleri

Velvet tamarind Dialium holtzii

Forest fever tree Anthocleista grandiflora

Second/lower story (10 - 25 m)

15m 20m 25m

Arabian coffee Coffea spathicalyx

Craterispermum schweinfurthii

Red ironwood Ochna holstii

60m

False white ash Pseudobersama mossambicensis

Sorindeia madagascariensis

Black Plum Vitex doniana

Shrub layer (<10 m) 15.0m

13.75m

11.5m 8.75m 6.5m

10m

3.75m 1.5cm

0m

Allophylus pervillei

MATERIAL & CONSTRUCTION DETAIL

Local material

1

LOWER BALUSTER JOINT

Forest peach Rawsonia lucida

2

Hairy-leaved violet-bush Rinorea ferruginea

UPPER BALUSTER JOINT

3

MAJOR SUPPORT

Steel handle Bamboo baluster 2

Teak wood plank Supporting structure

OTHER DETAILS

2m

2.0m 0.3m thick steel pole

Weathering steel handle

1

Bamboo baluster

Weathering steel handle Bamboo baluster Railing hole Baluster steel joint

0.05 thick steel support

Safety steel block

0.015m radius bolt

0.05m thick steel support

Safety rope rail

Safety rope rail

Forest ground 1.0m Concrete foundation

0.30m

0.06m thick teak wood plank

Steel pole branch

0.3m think steel pole

Underground soil Concrete filled 0.3m thick steel pole

1.25m

3

1.0m concrete footer

0.25m

0.3m gravel base

0.3m thick steel pole

Steel pole support 0.3m

12

0.3m 1.0m


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