PORTFOLIO YI LIU
Master of Landscape Architecture Robert Reich School of Landscape Architecutre Louisiana State University March 18 2014
Yi Liu Email:yliu92@lsu.edu Tel:225-276-2639 Address:1855 Brightside Dr. #B6, Baton Rouge, LA 70820
01\\//10
Climate DefenceEmerald Belt_Marsh
11\\//24
Responsive LandscapeDatascape
25\\//32
Reclaimed LandscapeWharf Reclamation
33\\//43
Other WorksInternship, Construction, Hand-drawing
01
um late s
fly fo r vis ter win
colorful warbler
ro ay th i t, s t
Location:
Galveston Bay, Houston
Mar. ugh Nov. to
Type:
Academic, Individual
Duration:
16 weeks, 01 - 05/2013
Instructor:
blue winged teal
Rob Holmes
Ecosystem
all fly south
EMERALD BELT / MARSH
mer and f
th sou
Climate Defence
blue winged teal
swainson’s hwak
Habitat Distribution Galveston Bay is a large estuary, rich in sub-tropic marshes and prairies, located along the upper coast of Texas in the United States. The water in the Bay is a complex mixture of sea water and fresh water which supports a wide variety of marine life.
juvenile shrimp
Trend of Wetland The total areas of wetland continue to declined even though people realized the importance and began to put efforts to restoration in recent years.
sandhill crane
adolescent shrimp
mysis postmysis
protozoa
nauplius larva oyster reef
nest on adult oyster
sea-turtle eggs
mature brown shrimp the b eac h
shrimp eggs
ulf
eG
01
bottlenose dolphin
erica & northern fly from Central Am erica South Am
spat
e
ass
egg
at p
th s to
Kemp’s ridley sea-turtle female
young Kemp’s ridley sea-turtle
Trend of Wetland inland forest
1996
2005
coastal prairie freshwater wetland brackish wetland salt wetland
-8% -2% +2%
Brackish /Salt Marsh Edges of the brackish and salt marshes serve as refuges and nurseries for juvenile of many species and important feeding grounds for wading birds. Research also shows that marsh can play an important role in the hard fight with storm surges. smooth cordgrass Microorganism
periwinkle snails
Nutrients Sediment
detritus plant decay
Height of Surge (ft) 21 15 12 6 0
Frequency of H5/10 yrs 20 10 5 2 1 0.5 0.2 0.1 Year
T(°C)
Katrina
2 1 0 -1
Current Temperature
1900
1950
2000
2050
Trend of Hurricane Global warming will result in more frequent and severer storm surges in the next 100 years. Meanwhile, the relative sea level rise will continuously push the inundation zones to landward.
2100
Storm Surge and Marsh
try
us
ind
be
for e
ity ng un eeni gr
mm
co
H en
op
y ba
e
rm
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aft
er
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Marshes in front of the coastline can dramatically decrease the storm surge height as well as attenuate the simultaneous wave energy which will damage facilities and structures, which can cause great loss to the society as well as the environment.
s
02
4 7
6 3
3
3
Site Plan
Site Analysis
Legend 1. marsh island 2. mudflat 3. storm water channel 4. existing bike trail 5. proposed pedestrian trail 6. wood deck 7. fishing dock
Bathymetry & Archipelago /1
direct flow
3 hold flow Bathymetry & Archipelago /2
1
3
intertidal marsh mudflat
Habitat Distribution
3
high/low marsh
5 2 Open Space Network
3
water treatment
industry
0
1000
2000
5000(ft)
N
Programs
community education
school
recreation 04
View of Mud Flats The mud flats enclosed by marsh islands will be periodically inundated because of tidal change, which is ideal place for juvenile shrimps and fishes. Then wading birds will be attracted here, eating and nesting. So it is a best place for bird watching. Meanwhile, other programs, like mud flat hiking, can also happen in this area. The upper land, which sometimes is dry and grown vegetation, provides space for drawing, photographing and other activities.
05
06
Section Section A-A
upland forest
The slope of both sides of marsh islands are different. The side to the bay is steeper so to better attenuate the wave energy, while the other side is slower so intertidal marsh shallow chan to increase the interface area.
upland forest
intertidal marsh
shallow chan
upland forest
intertidal marsh
shallow chan
Section B-B
ss
high tide mean level pre-bottom high tide
mean level pre-bottom
marsh high tide mean level pre-bottom
ne gh s u o s e r ttohmne c n g o ha bou en bacye r tom ohfan bot n e bay ss of ne h g tidal creek ou m r ce tto deep channelhansalt island tidal creek bo marsh en bay of
marsh deep channel
salt marsh island
The archipelago increases the roughness of the bay bottom, which will help reduce the wave energy. It also provide various habitats due to the different depth.
deep channel
salt marsh
deep channel
salt marsh
deep channel
salt marsh
tidal creek
marsh deep channel
high tide mean level pre-bottom high tide
mean level pre-bottom
high tide mean level 07 pre-bottom
salt marsh island
e s es a a e n d o os i is im a b itim t o i r r r r c a t i m a e a t m n u s m ti th us s cri palideoliusm ium ia bfronedasa matriima a m itim a e o o l o s ri tima ar ia p ri a ar tim ornnarSuuatic cum Inu inerlilthmr trliust Lim cm r o m n f e ca c st pa liuarc iu ia Ju da Sp ari a m c PIunul eAllia tripo Simo orn uae us m rtim S nc pa L oc r in rc cc Aste Juese S a u s a P eS n m d o i b cosa ritim a s o i r riti r a t i m a a t m n s i h u t t m u cri pal olium ium ia fr da mari a m a e o l n a im i p a r Inu inell r tri Lim oco Su ncus art p c te rc Ju S uc As Sa P salt marsh island mudflat
salt marsh island
mudflat
A
y rg
at
it ab
intertidal
nnel
intertidal
nnel
h t % ase 1 ita < re b a in%c se h <1 rea inc tidal creek high low t a t i ab tidal creek high low salt marsh h % ase 1 < re inc salt marsh
intertidal tidal creek
nnel
high
low
e y av erg w n e e %, uat ave 3 n > te w a%t , ate >3 tenu gy at er n mudflat e ve a w mudflat , ate % >3 tenu at
A
A
deep channel high tide mean level pre-bottom
deep channel
deep channel
B
s es
island + mudflat
ma ma
ma
high tide mean level pre-bottom high A tide mean level pre-bottom
mudflat
salt marsh
hn ug e ss o r c e ce rfgahn n ha suou en bacye r face ohfan sur n e bay ss of ne h g ou ce r ce rfa an + island sumudflat h en bay of island + mudflat
A
A
e en
B B
B B
B
deep channel
salt marsh island + mudflat
deep channel
salt marsh island + mudflat
deep channel
salt marsh island + mudflat C
Section C-C
C C
The slow slope of marsh islands enables a wide range of salt marsh plants to grow on the different elevation of islands.
C C
C
shallow channelintertidal marsh
salt marsh
residential
shallow channelintertidal marsh
salt marsh
residential 08
View of Fishing Deck The elevation of the wood deck is between the mean high tide level and low tide level, so when low tide, people can approach close to the water, even get down into the bay because of the shallow depth. There are some big rectangular spaces on the deck to allow plants grow through the deck, which can also separate the space. When high tide coming, the elevated path allows people close to the water. The plants that grow through the holes on the deck, reachable at low tide, will be intangible at the high tide.
a - Low Tide
09
a,b
b - High Tide
10
LOOP / before_after
credit: y,L yt,W
FRAMEWORK credit: yt,W
11
credit: MA,W
phase I: schools
RESPONSIVE LANDSCAPE
SENSING SYSTEM PHASES
DATASCAPE
02
LOCATION:
West Oakland, CA
TYPE:
Practical, Group of Three Partners: Yitian Wang, Matty A. Williams
DURATION:
15 weeks, 08 - 12/2013
INSTRUCTOR:
Bradley Cantrell, Justin Holzman phase II: main St. intersection
TECHNOLOGY INSTRUCTOR: Binyan Chen
C C ONTEXT
We propose a framework that will bring forward hidden information in order to create a virtual landscape. In order to unveil â&#x20AC;&#x2DC;hiddenâ&#x20AC;&#x2122; data, in real-time, we are creating a tool for use by various parties interested in environmental justice for West Oakland, CA. Community members are physically impacted by poor air quality, but have no way of understanding the real-time data, to a degree that enhances the ability to sense their environment. phase III: open spaces
L L OOP left-top
phase IV: secondary St. intersection
Large amounts of pollutants spread into W.O. and particulate matter makes up the largest concentration. Our research identified that 1) current data recording methods do not allow for data interaction at the community scale, and 2) citizens are unable to comprehend and react to environmental stressors. Overall, access to clear data communicating the quality of the air at any given site throughout W.O. is needed. The proposed framework allows the W.O. community to understand ambient environmental conditions, in real-time, and thereby make healthier commuting decisions.
F RAMEWORK left-bottom F
The framework contains five major components including a Sensing System, Data Platform, Communication Platform, Data Visualizations, and Infrastructural Implementation.
phase IV: intersection within community
SENSING SYSTEM right
This system archives environmental data from the Bay Area Air Quality Management District (BAAQMD) and air sensors dispersed throughout W.O. Sensors enable pollution concentrations (PM2.5, PM10, DPM, and Ozone) to be recorded in real-time, with geo-tagged coordinates. Weather attributes including temperature, humidity, wind, and photochemical smog. Each sensor has proximity of 250 feet. 12
TIMESCALES credit: y,L
DATA PLATFORM The data platform provides the definition of visualization and implementation. Xively, a customizable data hosting site, allows us to crowd-source data from our sensing system and compile this data at different time scales (left-top). The visualization of this data temporally allows for easier comparison, and a better understanding of fluctuating air quality.
Data-Color Range right-top
Within this platform, we have created an Air Quality Index (AQI) color range and a monochromatic color range. Utilizing Grasshopper parametric modeling to determine the monochromatic range, we created a relationship between X (real time data) and Y (time interval) coordinates based on the data provided by one central monitoring tower within West Oakland. In addition, we developed a bar graph of the AQI set by EPA, which indicates PM levels and their associated health risk.
Data-Color Proximity right-bottom
A voronoi definition in grasshopper defines the proximity of the colors converted from our monochromatic range. The mid-perpendicular of each line of connecting sensors intersects and forms cells of colors, which read as a heat map of environmental quality when blurred.
13
DATA-COLOR RANGE credit: yt,W
DATA-COLOR PROXIMITY credit: y,L yt,W
VISUALIZATION MODULES
Through three user interfaces and one plug-in for the Google Map API, this portion of our framework includes the communication platform and real-time visualization modules, including map interface, perspective interface, route choosing interface.
Communication Platform
It is in the form of a private web forum for sensor users and W.O. residents at large. In addition to providing a virtual space for interaction, and collecting information from social media site postings and hashtags to determine the ‘virtual’ mood with respect to air quality.
Map Interface
The map interface provides an overview of PM levels in West Oakland. The chart at the bottom shows pollution data at different timescales overlaid in a perspective interface. Interactive icons enable easy toggle between an individual sensor’s readings, identification of nearby emission sources, and health risk levels within the given proximity. The exported interface is shown in the example as a composite map displaying temperature, PM levels, health risk, direction, and emission sources simultaneously. left-top:
MAP INTERFACE credit: y,L yt,W
left-bottom:
EXPORT OF DATA credit: yt,W
right-top:
FOOTAGE OF INTERFACE credit: yt,W
right-bottom:
EXPORT OF MAP DATA credit: yt,W
15
see the animation of the map interface -credit: yt,W https://vimeo.com/81238689
>> pm2.5 /hr
>> pm2.5+10 /hr
> pm /month
>> pm /yr
>> sensor data
> emission source
>> health risk
>> download
start
>
>
16
>> PM data & health risk ranking in real time
>> PM data & health risk ranking in the past time
>> weather attributes and other information
Perspective Interface left
Route Choosing right
17
see the animation of the perspective interface -credit: yt,W https://vimeo.com/81238690 see the animation of the plug-in -credit: y,L https://vimeo.com/81238691
The second interface utilizes perspectives to illustrate PM levels and the associated health risk when people hold their phones out to scan the environment. The intensity of the color gradient overlaid on the interface, along with the health bar slider atop the interface, communicate the perceived health risk at that locale. Animated particle densities indicate fluctuating PM levels. Emission sources are highlighted, while other basic components further help people internalize their surroundings.
The third component is a route-choosing plug-in for Google Maps, utilizing gHowl, the Google Map API, and proposed sensing system, to make recommendation of which route to take is now considers routes with lower exposure to PM concentrations. Ideally the route choosing protocol should encourage healthier decision making abilities on behalf of W.O. residents.
START: search destination A
>> drop a pin on destination A
>> search destination B
>> get direction from A to B
>> get 3 routes with respective health risk rankings
>> choose a route (healthiest route)
>> get a closer and clear view of the chosen routes
>> mark the point with maximum PM value
>> mark the point with minimum PM value
left: perspective top INTERFACE credit: y,L yt,W
bottom FOOTAGE
credit: yt,W
right: plug-in top FOOTAGE credit: y,L
bottom PRINCIPLE
credit: yt,W
18
INFRASTRUCTURAL IMPLEMENTATION The implementation of our strategy encompasses a website, mobile app, site installation, and public infrastructure. The product of this framework, we hope, will result in real-time data accessible by designers, scientists, community members, artists, and policy makers.
Concept
The new BART armature uses strips of LED lights to illustrate regional and local PM levels at different time scales. The BART station forms a confluence of different user experiences, specifically with relation to passage time through, or by the station. User experience with this site can range from minutes to an entire day. As such, we
wanted to make the armature respond to this time sensitivity. Each individual strip is used to represent a one-minute change of both regional and local data. Local PM levels are translated as a certain color intensity within a monochromatic gradient. The length of each strip is determined by the regional PM level, every minute. Each minute throughout the day a new PM level reading is disseminated from the centerline of the station.
Plan
The plan shows the installation and infrastructure we propose; a new armature for the BART Station and a new lighting system for the streets of West Oakland.
D
Infrastructure
We have the opportunity to integrating sensing technology and light responsive systems into existing Oakland public infrastructure. Tube lights, attached to street lights at pedestrian intersections, can alert pedestrians of air quality at a distance. Ground lighting, embedded within street curbs, will connect to open spaces and intersections as well. The curbs themselves can indicate whether or not the current route is a healthy route, or, a harmful one. As air quality changes, the hue and brightness of the curb lighting change to reflect present air quality levels. By incorporating sensing technology into the raised pavement
markers on main streets and truck routs, we are able to educate drivers about PM levels. Small led face indicators at eye level will be continuously illuminated at residential intersections. During times of significant PM levels, this face indicates to viewers whether or not a face mask is recommended. Overall, our strategy takes advantage of existing infrastructure embedding data in a way that educates travelers about their environment, as they move through it.
left-top: PLAN credit: yt,W right-top: INFRASTRUCTURE credit: yt,W 20
BART STATIONâ&#x20AC;&#x2122;S FACADE
credit: y,L
see the animation of the facade -credity: yt,W http://vimeo.com/81239000 see the 3D model -credity: yt,W y,L https://sketchfab.com/show/cb415737587e412b8a1718c9654094a0 22
BART STATION’S INTERIOR credit: y,L
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STRIP SAMPLE MODEL credit: y,L instructor: by,C
24
WATER INFRASTRUCTURE
Haiti
Location:
City of Pedernales
Dominican Republic
Type:
Practical, Group of Two
Duration:
15 weeks, 08 - 12/2012
Resort 1
Instructor:
Wes Michaels
400 units urban area, waterfront
13
.4
m
ile
Context The site, a wharf, used to be a marina exporting limestones from the nearby mine which is planning to close in the near future. After researching the wharfâ&#x20AC;&#x2122;s positions in the country and regional scale, and its own advantages, some great potential stood out. The main concept is to make maximum use of the existing conditions to create the landscape benefiting both the environment, social economy and the life of local people.
st
o
th
ec
ity
Gas Pump
Loading Cranes Site
Background Information
1.5 m
Mine
Resort 2
Cabo Rojo
400 units high point, cliff
s
4 mile
+ Pedernales City /pop. 30,000 + designed resorts /total 1,200 units + only entrance to the national park + total area: 25 acres /450ft x 2,000ft
iles
Water Feature
Resort 3
400 units unique cliff
El Partio
Jaragua National Park
-Entrance
25
03
RECLAIMED LANDSCAPE
Opportunities Research Haiti
Port-au-Prince
Dominican Republic Jimani
Jacmel
Santo Domingo Barahona
53.97 m
i
Pedernales
2hrs ride 3hrs ride 4hrs ride waterways
74.77 mi 1
4 0.
8
i
m
Country Scale /Joint Tourism Europe and the United States are the major sources of visitors to Dominican Republic and Haiti, whose tourist cities only have poor road connections. Developing new waterways which stops at Pedernales before crossing the border have a great potential to make the entire trip safer and more beautiful than road trip because of the Caribbean Sea.
Treat Discharge
Collect
Supply
freshwater black /gray water suppliers/ consumers water treatment
hotel
Sources of Grey/black Water
mine
Regional Scale /Infrastructure The anticipated resorts and the reclaimed mine will have a strong demand for water treatment and supply, while the region is lack of infrastructure concerning water and power. The site is an ideal location to build water treatment facilities which can solve the problems and make the tourism development more sustainable.
Usages of Freshwater
hotel
deep channel existing structures panoramic views
Site Scale /Views and Values The extended jetty provides panoramic views out to the sea and Cabo Rojo. The large disturbed area is suitable for big scale constructions which will impact the natural system if built in surrounding areas.
view to Cabo Rojo 26
Customs Docks
Country Scale Strategies
Regional Scale
Based on the opportunities found in the three scales, six functions are decided to layout on the site. The location of each function fits the site condition respectively.
Infrastructure Restaurants
Site Scale
Stage Local Market
1 2 3 4
Custom Office Boat Dock Fisherman’s Plaza Retail Market
Master Plan 27
5 6 7 8
Clubhouse Entrance Plaza Boat Taxi Drop-off Stage
9 Restaurant 10 Viewing Plaza 11 Bar & Plaza 12 Board Walk
13 Waterfall 14 Knolls 15 Car/Bus Drop-off 16 Bus Parking Lot
N
0
50’
100’
200’
300’
700’
a b c d
Grit & Screen Primary Clarifier Pumps DAF Thickener
e f g h
Fermenter Digesters Heating Building Utility Building
i Control Room j Secondary Clarifier k Vegetated Bioreactor l Solar Bank /Parking Lot
m Boat Launch n Gas Dock o Service Center p Gas Station q Gas Silos 28 04
Reclaimed Water
Analysis Infrastructure Separating the beginning processes (dirty water) and the terminating processes (clean water) from the tourists was the main concern. Given that most will come by boat, the initial facilities are placed on the east end of the site where there is not much traffic. The final processes near the festival space and stage on the other end are reached by an open stream through the spine of the site. After the water is cleansed, it will either exit via a waterfall on the south side or be sent to the mine for irrigation.
W-E Section
Restaurants & Stage 29
Plaza
Bar
Bioreactor
Slope
Secondary Clarifiers
Rest Lawn
Retail Marke
et
Grid & Screen Primary Clarifiers 4 hrs.
Black Water
Bioreactor (BNR)
9 hrs.
Pumps
Secondary Clarifiers
effluent
micro-organism
sludge
Heating Building
Control Room Utility Building Solar Plant
Digester
20 ds.
Thickener Fermenters thickened sludge
Waste Water Treatment Facility
Primary Clarifier
Solar Parking Lot 30
Analysis N-S Section (A-A Section) Given the process that water should exchange several times between Bioreactors and Secondary Clarifiers, which would cost about 9 hours, the two ponds were connected in the form that Bioreactors were encircled by Secondary Clarifiers. The bottom elevation of those ponds were different - the center the lowest while the periphery the highest - but with small value. The walls which separated the ponds had holes in small radius along the bottom side. Those two detail designs enable the water to flow from higher to lower ponds in a very low speed.
Board Walk Bar 31
Seconda
ary Clarifiers
Circulation by Land and Sea Pass-by Major Road Main Road
Pedestrian Path Water Access
Road for WWTF Drop-off (Vehicle on land)
Entrance Plaza (Land Access) Entrance Plaza (Water Access)
Parking Lot A
A
Boat Taxi Drop-off 32
04 Other Works A
INTERNSHIP @NBBJ Type:
Master Plan Rendering, Diagram Rendering
Duration:
3 months, 06 - 08/2013
Project Team:
Shantou Urban Design
Context It is an urban design competition of Shantou New Districts which are three reclaimed islands. The idea is to connect the new development area with the historical city center through coherent urban fabric, green corridors and new transportation system; to adopt â&#x20AC;&#x2DC;smart growthâ&#x20AC;&#x2122; policy to make fewer impacts on the environment; and to emphasize human experiences.
Urb
an
CB
Are
DC
a-
orr
Sh o
rel in
eC
on
r -S ho
eC
on
ng
rov eP
res e
left: Axions of Shoreline Concept right: Framework Render 33
rva
tio
t
ido
rel in
Ma
cep
n-
Sh o
rel in
eC
on
cep
t
cep
t
Urban Area
CBD Corridor Mangrove Preservation
34
Context The plan is to build a library that is accompanied with a parking lot, an outdoor reading space, a childrenâ&#x20AC;&#x2122;s playground, a cafe and bike trail. There are several huge live oaks encircle a flat land in the shade of their big crown. The side facing the main street has a slope that is a little bit steep, which is a problem when making grading solution.
Site Plan 35
LIBRARY SITE DESIGN Type:
Site Plan and Grading
Duration:
6 weeks, 10 - 12/2012
Instructor:
Bruce Sharky
Grading Plan 36
04 Other Works B
37
Horizontal & Vertical Plan of Bike Trail
Horizontal Alignment of Bike Trail 1:25
Vertical Alignment of Bike Trail horizontal scale 1:30 vertical scale 1:7.5
38
04 Other Works C
LSU COURTYARD DESIGN
1
CONCRETE BENCH
3
VEGES-STRIP ELEVATION
p41
1”=1’-0”
Type:
Site Plan and Detail Design
Duration:
5 weeks, 03 - 14/2013
Instructor:
Wes Michaels
Context The plan is to redesign the small and long space into a court yard that can provide students both gathering spaces and passing by pathways. The challenge here is to offer a sensible solution to the drainage problem on the site especially during the heavy rain day when rain water will flush through the site.
Site Plan p41
1
p41
2
p42
3
p41
FINISH GRADE
39
1”=2’-0”
View to the South
2
p42
CORTEN PLATE EDGING 1”=1’-0”
40
04 Other Works D
5
4
A
GARDEN DESIGN
5 6
Type:
4
Chinese Traditional Garden Design
Duration:
6 weeks, 04 - 06/2012
Instructor:
2
3
Daixin, Dai
The garden is not only for relaxation and recreation but for meditation as well. An ideal 1 A setting for meditation should be featured by tranquility, artlessness and comfort. The garden is located on a mountanside, surrounded by bamboos and with a spring running through. As to stand out the atmosphere of meditation, the first half of the garden tries to draw a picture of a secular and material world, which provides a contrast for the unearthly and spiritual world built in the later half. The running spring with different shapes leads people to the top, making a connection between the two worlds.
41
2
1
3
42
ANALYSIS Type:
Slope Map
GIS Analysis, Rhino Terrian, Photoshop, Illustrator
Duration:
15 weeks, 08 12/2013
Instructor:
Forbes Lipschitz
DEM
Aspect Map Population Heat Map
Urban Proximity
Road Heat Map
Rhino Terrian
Service Area & Network Analysis
Ecological Buffer & Overlays
Road Density Grid Map
04 Other Works E
YL- RESUME
YI LIU! Student ASLA, MLA, LSU
OBJECTIVE!
!! ! EDUCATION!
begin from July 7, 2014
May 2014 June 2013
! !! !
June 2012
EXPERIENCE!
June 2013 - August 2013 Columbus, OH
!! !! !! !!
July 2011 - August 2011 Shanghai, China
July 2012 Pingfeng village (extremely poor), Ningxia Province, China
!! SKILLS! !! ! !
LANGUAGE! REFERENCE
Ad: E : T : L :
1635 177th Ave. NE, Bellevue, WA 98008 yliu92@tigers.lsu.edu (225)276-2639 https://www.linkedin.com/pub/yi-liu/66/975/367
Seeking an entry level, full-time position as a landscape designer in an active, innovative, mutual promotive and supportive firm where I can be engaged in with my passion and ideas.!
! !
Robert Reich School of Landscape Architecture, Louisiana State University! Master of Landscape Architecture! - Third Prize of RRSLA Design Week!
! !!
Collage of Architecture and Urban Planning, Tongji University, China! Bachelor of Engineering in Landscape Architecture!
NBBJ | Shantou Urban Design Competition, Guangdong Province, China! Intern Landscape Designer! - Plan developing and rendering / AutoCAD, Illustrator - Diagram and collage making / SketchUp, Photoshop - Weekly work organizing and summarizing / Indesign - English-Chinese translation
!
Pandscape | Park Design, Qingdao, Shandong Province, China! Intern Landscape Designer! - Site visit and research - Chief designer of master plan / Hand-drawing, AutoCAD - Plan and section rendering / Photoshop
!
Xiaoshu (Little Tree) Non-profit Organization Volunteer!
- Helped to design the website for the organization - Brought dictionary and stationary to the middle school’s students
!!
Adobe Photoshop, Illustrator, InDesign, AutoCAD, Google SketchUp, Artlantis, ArcGIS, Rhino Terrain, Grasshopper, MS Office! Physical model skill, Hand-drawing! English (Professional working proficiency)! Chinese (Native)!
!!
Bradley Cantrell Director & Associate Professor, LSU! (225)614-4080, cantrell@lsu.edu
Bruce G. Sharky FASLA & PLA & Professor, LSU (225)578-1441, bshark2@lsu.edu
Sasan Norouzi Architect & Urban Design, NBBJ! SNorouzi@nbbj.com
44
Yi Liu
Email: yliu92@lsu.edu Telephone: 225-276-2639 Address: #B6, 1855 Brightside Dr. Baton Rouge, LA 70820