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ASHLEY MERCHANT 2011 HARVARD GRADUATE SCHOOL OF DESIGN PORTFOLIO

Ashley Merchant Portfolio 2011

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Ashley Merchant Portfolio 2011

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  • ASHL

    EY

    MERC

    HANT

    2 01 1

    HARV

    ARD

    GRAD

    UATE

    SCHO

    OL O

    F DES

    IGN

    PORTF

    OLIO

  • Fa09 weave

    Fa06 aerocity

    Sp07 thesis

    Sp10 parametric

    UNIVERSITY OF SOUTHERN CALIFORNIA

    HARVARD UNIVERSITY GRADUATE SCHOOL OF DESIGN

    HARVARD UNIVERSITY GRADUATE SCHOOL OF DESIGN

    UNIVERSITY OF SOUTHERN CALIFORNIA

    Section 1: ACADEMIC

  • Sp10 hillside

    The Chinese city of Chongqing is known for both its foggy weather and hilly terrain. The studio set out to explore pos-sibilities beyond the typical smooth gradient of the para-metric. The project, a 400,000 square foot educational complex sited a hillside, is divided by structural voids that allow for the retention of the slope as an important pas-sageway in the city.

    [This project was chosen to represent the GSD on Studio-plex.org website and featured in Platform publication and exhibit of student work.]

    Steep Parametric: The Chongqing Urban Hillside

    Harvard GSD / 2nd semesterSpring 2010Prof. Preston Scott Cohen

    This is a parametric project that does not succumb to the typical parametric aesthetic.

    Where parametric is often synonymous with smooth, this is awkward and discontinuous. While the parametric often embodies a continuous gradient condition, this project makes use of sets and types.

  • LENGTH

    45mLENGTH

    27mLENGTH

    20m

    WIDTH

    7m

    WIDTH

    10m

    WIDTH

    5m

    SPACING

    22mSPACING

    25mSPACING

    20m

    SPINE WIDTH

    16m

    DEPTH

    40mDISTRIBUTION

    50% / 50%SPINE WIDTH

    10m

    SPINE WIDTH

    6m

    DEPTH

    50mDISTRIBUTION

    10% / 90%

    DEPTH

    28mDISTRIBUTION

    30% / 70%

    This project explores the idea of thresholds. Currently, the Chongqing planning department does not allow building on sites with greater than a 25% slope. Instead of using the slope as an on/off switch, I was interested in creating a system in which the slope determines the module type to be inserted.

    These modules correspond to different programmatic groups, relating to needs of continuity and discontinuity inherent in each program type.

    HOUSING PERFORMANCE EDUCATION

    thresholds

    void module types

  • Sp10 hillside

    This is not meant to create a 1:1 relationship between program and form, but instead to create a loose fi t, a range of spaces for each program that will accommodate the variety of spaces within each program group.

    The ordering system of the project is a series of structural voids that cut through, leaving urban corridors through the complex. These voids change size, shape, and spacing depending on the needs of the program type.

  • ZONE 1: STREET EDGE

    ZONE 2: STEEP INTERIOR SLOPE

    ZONE 3: HILLTOP

    The project explores the typical Chongqing hillside condition. In this hilly city, the slopes serve as important passageways through the city. Incorporating voids perpendicular to the spine of the building preserves the function of the hillside as passageway.

    This hillside site is currently divided into three zones: Alarge public park at the top of the hill, small-scale residential on the steep slope, and tall highrises on the urban street edge.

    the typical chongqing hillside

    Existing stairways and circulation on site

  • Sp10 hillside

    This parametric system can be deployed on various lines drawn on the site, creating the central spine of the building. Not every line works. There are characteristics of lines that work and dont work.

    Different instantiations are analyzed based on the square footage of program types they create as well as their urban impact on the site.

    instantiations

  • 07 11 18 19

  • Sp10 hillside

    20 21 22 23

  • While adjacent boxes are offset on the exterior, in some areas of the complex, such as the area containing classrooms, there needs to be continuity between ad-jacent programs. Therefore, in these areas, the interior volume is dropped a half level, allowing continuity and creating an exterior circulation space surrounded by a low parapet wall.

    In section, the building alternates between sections that are buried in the earth and sections that are suspendedin the air.

    sectional offset

  • Sp10 hillside

    Chongqing is a city known for its dense fog. It is impossible to get an overall sense of the city, rendering the totality completely inaccessible. This absence of background gives the foreground a heightened importance.

    While in other cities, view corridors might be important elements of the city, here nearness is the operative con-dition. In addition to, this lack of background, the city is defi ned by its interiority. There are moments when the city opens up to you, but only ever from the inside, un-folding slowly, piece by piece, but never as a whole.

    interiority

  • The tapering fl oor plates hold discrete rectangular volumes, creating a condition of a thickened skin.This creates a condition of layered nearness, the establishment of an immediate foreground within the inward-looking building.

  • Sp10 hillside

    WALLS ARE COINCIDENT

    LESS THAN 1M BETWEEN WALLS

    MORE THAN 1M BETWEEN WALLS

    The idea of thresholds is carried into the facade where the distance between the outer envelope and the inner volume determines the type of panel inserted.

    If the distance between the inner and outer envelopes is less than 1m, the skin reaches back to the inner surface, creating a thick facade. If the planes are coincident, the facade is bumped outward. If the distance is greater than 1m, this is characterized as semi-enclosed occupiable circulation space and the facade is expressed as a screen wall.

    facade panel types

    corridor

    classroom

    walls are coincident

    less than 1m between walls

    greater than 1m between walls

    thickened facade

  • Sp10 hillside

  • Fa09 weave

    New tools have allowed for the creation of fl owing forms that have become increasingly detached from material realities and construction processes. This studio proposed an alternate model, starting with the material itself: wood. The fi rst part of the semester consisted of an in-depth anal-ysis of material properties and behavioral characteristics.

    This project looked at weaving as a parametric system, an-alyzing factors such as warp, weft, grain direction, scale, etc. The semester culminated in the fabrication and con-struction of a 1:1 prototype of the system.

    Material Systems: Weave

    Harvard GSD / 1st semesterFall 2009Prof. Achim Menges

  • WEFT LENGTHS - SIDE A

    A-1: 89A-2: 95A-3: 101A-4: 105A-5: 108A-6: 112A-7: 112A-8: 112A-9: 113A-10: 110A-11: 105A-12: 95A-13: 81

    CONTROL CURVE 2

    DISTANCE FROM START: 36.00BASE HEIGHT: 0.00BASE WIDTH: 46.77CURVATURE HEIGHT: 18.00CURVATURE WIDTH: 37.67WIDE POINT: 46.72HEIGHT: 80.00TOP WIDTH: 16.00

    CONTROL CURVE 1

    DISTANCE FROM START: 0.00BASE WIDTH: 18.20BASE HEIGHT: 0.00CURVATURE HEIGHT: 19.56CURVATURE WIDTH: 17.13WIDE POINT: 26.45HEIGHT: 62.00TOP WIDTH: 12.63

    CONTROL CURVE 3

    DISTANCE FROM START: 76.93BASE WIDTH: 0.00BASE WIDTH: 20.25CURVATURE HEIGHT: 19.27CURVATURE WIDTH: 38.58WIDE POINT: 56.00HEIGHT: 83.85TOP WIDTH: 13.63

    CONTROL CURVE 4

    DISTANCE FROM START: 109.9BASE HEIGHT: 40.65BASE WIDTH: 10.82CURVATURE HEIGHT: 8.83CURVATURE WIDTH: 23.70WIDE POINT: 23.70HEIGHT: 32.68TOP WIDTH: 4.96

    EVENT MAGNITUDE

    INITIAL: 0.50FALLOFF 1: 40%FALLOFF 2: 20%

    WEFT LENGTHS - SIDE B

    B-1: 78B-2: 84B-3: 88B-4: 91B-5: 93B-6: 94B-7: 95B-8: 96B-9: 97B-10: 99B-11: 98B-12: 91B-13: 83

    # OF WARP DIVISIONS

    12.00

    FRAME WIDTH

    2.00

    AVG. WEFT SPACING

    9.35

    WEFT WIDTH

    2.00

    SLOT DEPTH

    0.75

    SECONDARY WIDTH

    2.00

    WA

    RP T

    EMPL

    ATE

    0301 02 04 05 06 07 08 09 10 11 12

    MAX. WARP WIDTH

    22.99

    MIN. WARP WIDTH

    9.20

    MAX. WARP LENGTH

    146.47

    BASE

    TEM

    PLAT

    E

    SECO

    ND

    ARY

    PIE

    CES

    FRA

    ME

    TEM

    PLAT

    ES

    B

    C

    D

    A

    C1 DISTRIBUTION

    0.0000.0240.0670.1210.2130.3530.5310.688

    0.8000.9300.9691.000

    ATTRACTOR POINT

    (67.49, 27.12, 46.69)

    C3 DISTRIBUTION

    0.0000.0280.0690.1260.2010.2970.4170.555

    0.7010.8320.9291.000

    C4 DISTRIBUTION

    0.0000.0240.0670.1210.2130.3530.5310.688

    0.8000.9300.9691.000

    C2 DISTRIBUTION

    0.0000.0170.0670.1460.7500.3710.5000.629

    0.7500.8540.9330.9831.000

    INPUTS

    OUTPUTS

    PROTOTYPE

  • By exploiting the tensile capacity and bending ability of wood, a system can be created that uses double cur-vature to create a thin yet rigid structure. The materialproperties can be combined with the logic of the weav-ing in a computational model that can calculate the in-formation needed for the fabrication and assembly pro-cess. These surfaces can be assembled from computed fl at elements which create the desired form from the dif-ferences in the shapes of adjacent elements, creating curved surfaces from fl at elements without the need for formwork.

    Fa09 weave

    form without formwork

  • imag

    e so

    urce

    : So

    phea

    p Pi

    tch

    WARP/WEFTDIFFERENTIATED

    WAYS TO CREATE FORM WITHIN A WOVEN SYSTEM

    VARIABLE SPACING (TRADITIONAL)

    VARYING WARP

    GRAINDIRECTION

    PARALLELPERPENDICULAR

    WARP/WEFTSIMILAR

    WARP/WEFTSIMILAR

    WARP/WEFTDIFFERENTIATED

    WARP/WEFT SIMILAR

    NUMBER OF WARP DIVISIONSDISTRIBUTION OF WARP DIVISIONS

    WEFT DIVISIONS

    WARP DIVISIONSPRIMARY FORM

    PRIMARYORIENTATIONOF CURVATURE

    HORIZONTALVERTICAL

    OVERALL HEIGHTSTART HEIGHT

    LENGTHBASE LENGTH

    BASE WIDTHWIDEST POINT

    NUMBER OF WEFT PIECESSEGMENTATION ASSEMBLY METHOD

    TABS BRANCHINGINTER-WEAVING

    SEAM

    TOP SPACING

    LOCATION OF SPLIT

    BOTTOM SPACING

    PATH CALCULATION

    SECTION NORMAL GEODESICS

    WARP/WEFTDIFFERENTIATED

    A1 B1 A2 A2.1 B2

    A1

    B1

    A2

    A2.1

    B2

  • 01 02 03 04 05 06 07 08 09 10 11 12

    01

    02 03 04 05 06 07 08 09 10 11 1201

    02 03 04 05 06 07 08 09 10 11 12

    WEFT DIVISIONS WARP DIVISIONS

    EVENT ALTERS SPACING

    EVENT(LOCAL CONDITION)

    WARPRESPONDS TO EVENT

    WARP SHIFTS TO RESPONDWITHIN WARP

    SECONDARYSCALE

    BEHAVIORPOROSITY

    EVENT REGION

    EDGECONNECTION

    NOTC HOLE

    LENGTH SPACING ANGLE METHOD WIDTH

    WEFT WIDTH

    NOTCH WIDTHNOTCH DEPTHNOTCH EDGE

    BENDING

    WEFT MATERIAL

    TAB CURVE

    WEFT

    NOTCH LOCATION NOTCH ANGLE

    LENGTHS

    WARP

    MATERIALCONSTRAINTS

    GRAINORIENTATION

    WARP MATERIAL

    LENGTH(IN DIRECTION OFCURVATURE)

    BENDINGDIRECTION(GRAIN)

    ALIGNEDWITH CENTER OFCURVATURE

    PARALLEL TO GROUND

    SEAM LOCATION

    CONNECTION METHODS

    LAMINATION DISCONTINUITY

    INTER-WEAVING

    NOTCHES

    FABRICATION CONSTRAINTS

    01 03 02

    10

    04

    04 03

    02

    05

    01

    06 07

    0809

    05

    10

    11

    0611

    12

    1209

    07

    08

    The process for this project looked at woven systems as a series of parameters such as weave differentiation, spacing, size, as well as materials properties of wood such as bending behavior and grain direction. These determined parameters were then input into a Grass-hopper model that calculated fabrication information and templates using the specifi ed properties of a given surface. A woven system is defi ned as much by the pro-cess as by the fi nished product, therefore both fabrica-tion and assembly constraints were an important part of this model.

    Fa09 weaveSECONDARYSCALE

    BEHAVIORPOROSITY

  • The fabrication process began in the digital model. For example, the mono-directional bending of the larger warp panels was taken into account by rotating each panel slightly in relation to the grain direction so that the specifi c curvature could be achieved. The assembly process consisted of stacking each warp panel on top of the previous one, increasing the tension in the weft until it was pulled fl at against the surface. The actual woven structure was assembled by two people in three days, starting with both sides and meeting at the seam piece at the top.

    Fa09 weave

    fabrication

  • Fa06 aerocity

    Megacities around the world have developed their own ways of coping with issues of density, overcrowding, and population growth. As Los Angeles struggles to adapt to increasing population and density, there is much to gain by transplanting methods of living developed elsewhere. These strategies were ripped from their original cultures, adapted to Los Angeles, and applied to a housing project in Hollywood.

    [This project was selected to represent USC at the 2007 2x8: Vert Student Exhibition at the Pacifi c Design Center.]

    a e r o c i t y

    University of Southern California / 5th yearFall 2006

  • One of the main characteristics of Tehran is the extreme separation between public and private. This can be seen in the contrast between the intensely private inward-looking traditional courtyard house and the very public bazaar. In this project, the private block of housing is lifted away from the public ground plane.

    The courtyard houses of Tehran are also designed to very efficiently deal with the climate through their organization and use of wind. This project seeks to exploit the climate-controlling characteristics of wind by using the form of the building itself to increase the wind speeds across the building.

    As the population of Tehran has risen, the density hasdecreased, contributing to sprawl. This is caused by the increased amount of square footage per person. As LosAngeles deals with the same effects of increasing sprawl, this project attempts to use as a model the density of Tehran before it began to drop (1891) without compromising theamount of living space per person.

    The project then becomes a set of 3 horizontal planes that fold to conform to various factors.

    1. The top plane folds to funnel the wind and increase the wind speeds across the building.2. The bottom plane folds up in order to let light onto the ground plane below.3. The ground plane folds to accommodate both enclosed shops and sur faces for

    informal commercial activity.

    t e h r a n :

  • Fa06 aerocity

    Ground plane folds to accommodate shops and offices

    Bottom Plane folds to allow light underneath

    Private block lifts away from public ground plane

    34,000 People/km Density112,800 Square Feet340 People525 Square Feet Per Person

    Top plane folds to increase wind speeds across the building

    1 2 3 4 5

    l o s a n g e l e s :

    c o

    n c

    e p

    t

  • 25

    s t

    r u c

    t u

    r e

    The walls between the units are structural The walls carry the vertical load The concrete skin provides lateral support The floorplates span between the walls The walls rest directly on the groundfew places to provide lateral suppor

    c i r

    c u

    l a

    t i o

    n

    Public Circulation to commercial areas

    Circulation Walls Private circulation from parking to stair walls

    Private circulation from street to stair walls

    Vertical Circulation to Units: Stairs inside Walls

    Vertical Circulation to Units: ElevatorsVeVV rtical Circulation toUnits:: Elevators

    p r

    o g

    r a

    m

    residences enclosed shops commercial planes for open market

    e l e

    m e

    n t

    s

    walls folded top plane with perforated courtyards

    opaque glass sidesfolded bottom planefolded commercial ground plane

    b l

    d g

    . s

    y s

    t e

    m s

    Alternating walls contain technical modules and building systems

    Utilities are distributed within the walls

    The building is segmented by walls that divide the units and provide structure for the building. Alternating walls provide circulation on one side of the unit and contain technical modules on the other. Circulation occurs in a similar way to Tehran, where a person can move from the public bazaar into the private courtyard house by walking down a narrow alley. These alleys become tall, narrow stairwell spaces that lead directly to units. The units are entered through their courtyards.

    Fa06 a

    residences

    folded commercial ground plane

    folded bottom plane walls

    enclosed shops commercial planes for open market

    folded top plane with perforated courtyards

    opaque glass sides

    the walls between the units are structural

    public circulation to commercial areas

    circulation walls private circulation from parking to stair walls

    private circulation from street to stair walls

    the walls carry the vertical load the concrete skin provides lateral support

    the floorplates span between the walls

    the walls rest directlyfew places to provid

    vertical circulation to units: stairs inside walls

    vertical circulation to units: elevators

    alternating walls contain technical modules and building systems

    utilities are distributed within the walls

    the walls rest directly on the ground in a few places to provide lateral support

    Fa06 aerocity

  • i n f o r m a l c o m m e r c i a l a c t i v i t i e s o c c u r b e l o w

  • s t a i r s e c t i o n1/8=1s t a i rs e c t i o n

    Fa06 aerocity

  • 3 34 4

    4th and 5th floor plans

    Unit Model

    Unit Perspective

  • 10 119

    inhabited wall

    technical wall

    circulation wall

    modules

    u n

    i t

    s

    The units themselves also utilize the flexible, changeable idea of space in Iranian courtyard houses. This is applicable to L.A. because of shifting schedules. For example, if a person that lives in L.A. and commutes to work during the week shares a unit with a person who only stays in L.A. during the weekends, they will not be using the space at the same time. Therefore, there arepersonal modules such as workstations and sleeping stations that plug into the technical wall when not in use. When these modules are needed, they can then be taken out and moved around the unit to best utilize thechanging conditions of climate and occupation.

    Typical Unit PlanMovable Personal Modules

    Partial Cross-SectionAlternating Hollow Circulation and Service Walls

    circulation wall

    technical wall

    inhabited wall

    modules

    Fa06 aerocity

  • p l a n s

    l o n g i t u d i n a l s e c t i o n s

  • 4.25.1

    s e c t i o n t o w a r d w a l l 31/8=1

    s e c t i o ntoward wall 3

    1 2 4 53

    78

    6

    10 119

    78 10 11

    9

    c r o s s - s e c t i o n s

    6

    Fa06 aerocity

  • Los Angeles Traffi c Management Center is located deep under City Hall, carefully monitoring and controlling the streets and highways. The status of the fl ows is then dis-seminated to the public. This project proposes bringing the center above ground and giving it a public presence in the city. The site for the project is the unused dead-end portion of the I-110 freeway as well as the land along the edge of the freeway.

    [This earned USCs 2007 Raymond S. Kennedy Award for the top thesis project.]

    Between the Freeway and the Park-ing Structure

    University of Southern California / ThesisSpring 2007

    Sp07 thesis

  • program

    Los Angeles Traffic Management Center

    Infrastructure Research Labs

    ParkingIntelligent Infrastructure Research Center

    This project proposes bringing the Traffic Management Center, currently buried four stories under City Hall, above ground and giving it a public presence in the city. This would give a physical, iconic face to a piece of the virtual infrastructure.

    The project is located on an unused, dead-end portion of the I-110. By placing a building on this part of the freeway, the project makes a statement that what we need at this point in time is not more freeways, but smarter, more efficient infrastructure. p r o g r a m

    Longitudinal Section/ElevationLongitudinal Section/Elevation

    program

    Los Angeles Traffic Management Center

    Infrastructure Research Labs

    ParkingIntelligent Infrastructure Research Center

    This project proposes bringing the Traffic Management Center, currently buried four stories under City Hall, above ground and giving it a public presence in the city. This would give a physical, iconic face to a piece of the virtual infrastructure.

    The project is located on an unused, dead-end portion of the I-110. By placing a building on this part of the freeway, the project makes a statement that what we need at this point in time is not more freeways, but smarter, more efficient infrastructure. p r o g r a mprogram

  • s i t e p l a n

    Sp07 thesis

  • ho

    pe

    st.

    flow

    er st.

    28th Street Elevation3/32=1

    air quality: poor

    10 min. n. to to the I-1 the I-10

    uv factor:actor: 4uv faactor: 4 35 min to thhhe 40535 min. to tthhe 4050

    accident at expositionontemperature = 81 dedegreesegrees

    ho

    pe

    st.

    flow

    er st.

    Cross-Section3/32=1

    28th Street Elevation

    Cross-Section

  • overlapping linear elements independence from the surface folded planes structure sectional separations replication: merge/split

    b e t w e e n t h e f r e e w a y a n d t h e p a r k i n g s t r u c t u r e . . . s p a t i a l l a n g u a g e

    overlappinglinear elements the surface

    independencefrom

    folded planessectional

    separationsreplication:merge/splitfolded planes structure

    Methodology: The site is located between the freeway and a parking structure. The project seeks to use the spatial experiences and methods inherent in these typologies such as striation and folded planes. The project also explores the edge condition of the site by turning the freeway wall into an occupied wall.

    Sp07 thesis

  • 1cross-pathway

    4

    9

    F1 F2 F3 F4 F5

    1

    34567

    89

    cross-pathway A1 A2A A4 A5A3

    division + organization

    freeway

    structure

    concrete sloping planes

    enclosure

    metal bridges cross through site perpendicular to grain

    lightweight metal structure on top of freeway

    d i v i s i o n + o r g a n i z a t i o n

    lightweight metal structure on top of

    freeway

    metal bridges cross through site perpendicular to

    grain

    enclosure

    concrete sloping planes

    structure

    freeway

  • I N F R A S T R U C T U R E Ss h i f t i n gs h i f t i n gs h i f t i n gI N F R A S T R U C T U R E SI N F R A S T R U C T U R E S

    digitalP H Y S I C A L

    The freeway system in Los Angeles is a part of what is known as the intelligent infrastructure. Digital technology is becoming increasingly important in the management and control of the infrastructure of cities. The project also proposes a campus in which these new technologies can be studied. This campus has facilities for research into both the physical and the digital components of these systems.

    air quality: bad

    visibility: 10 miles20 min to airport

    UV index: 4

    C1 C2

    12

    345 4444444

    public lab entry C

    r e s e a r c h l a b sr e s e a r c h l a b sr e s e a r c h l a b sr e s e a r c h l a b s

    C4 C5

    air quality: bad

    40 min to the 405visibility: 10 miles

    temperature: 57 degrees

    20 min to airport

    UV index: 4

    C3

    public lab entry B B1 B2

    B3 B5B4

    Sp07 thesis

  • structure

    structure

    slab M fab. Moment frames

    Combined Structure

    Structural Plan

    Concentrated Loads on Top of Existing Freeway Supports

    Column and Beam StructureBeside Freeway

    The concrete post-and-beam structure of the buildings echo the construction of the freeways, contrasting with the lightweight steel pieces set on top of the freeway that focus their load over the existing freeway supports. Another element of the project is the creation of an occupied freeway wall, creating an active edge condition.

    s t r u c t u r estructure

  • Detail Section1/2=1

    D3 D4

    1245 3

    6

    3333

    circulation bridge E E1 E2 E5 E6E4E3

    Detailed Section

    l o w e rl e v e l o ff r e e w a y

    b r i d g e

    o c c u p i e df r e e w a y w a l l

    p a r k i n g

    p a r k i n g

    p a r k i n gl a b s m e e t i n g

    e x h i b i t s

    s o c i a ls p a c e

    b r i d g e

    o f f i c e s o nf r e e w a y

    r e s e a r c h b u i l d i n g

    d i g i t a ll a b s

    v e n t h i l a t i o n

    d r i v i n g

    Sp07 thesis

  • G4 G5 G6 G7

    I-110 North Elevated Exit G

    1 2 34 5 6 7

    1G 2G 3GDI-110 North Elevated Exit Lane D2 D3 D1

    D5 D7D4

    D1

    D6

    a b u i l d i n g s e e n a t 6 0 m p h . . .

    Sp07 thesis

  • Level 03/32=18 feet below street level

    Level 08 feet below street level

    Longitudinal Section3/32=1

    labs

    exterior space

    offices

    research library

    occupied freeway wall

    vehicle technology lab

    computer lab

    Longitudinal Section

    freeway below

  • QUQUQUQUALALALAAALITITITITTY:Y:YYY 4 4444.6.666TRTRTRTRAFAFAFFIFIFIC CC COCOCOOOOOOOOONDNDNDNDNDDNDNDDNDDNDNDDDNDDNNNNNNNNNNNOOOOOOOOOOOONDNNDNDNDDNDNDDNDDNDNDNDDDNDDNDDNNNDNDNNNNDNDNNDDDNDDDDDDDNNNDDDDDDDDDDDDDDDDDDDDDDDDIIIIIIIIITITITITITITITITIITIITTIITIITTTITITITITTIITTITITITITITTITIITTTTTIOIOIIOIOOOOOIOIOOIOOOOOOIOOOIOOOIIOIOIOOOOOOIIOOOOOOOOOONSNSNSNNSNNNSNSNNNSNNSNSNSNSSNNSNSNSNNSNSSNSNNNSNSNSNSNSNSSSNNSN11111111 0 00 00 WAWAWAWAAARNRNRNRNRNNNRNNRNRNNNNNNNRNRNRNRRNNNNRRRRRR IIIIIIRNRNNNRNNNRNNNNNRNRNNNRNNNNRNRNRNNNRNRNRNRRNNNNNNNNNNNNNNNNNNNNNINIINNINININININIINININNNININININNININNNINNINININININNINNINNNINININNINININNNININNNGGGGGGGGGGGG

    Sp07 thesis

  • 07-08 border

    07-09 chapel

    10 hotelPRESTON SCOTT COHEN, INC

    HODGETTS + FUNG DESIGN AND ARCHITECTURE

    HODGETTS + FUNG DESIGN AND ARCHITECTURE

    10-11 museumsPRESTON SCOTT COHEN, INC

    Section 2: PROFESSIONAL

    10-11 hotelPRESTON SCOTT COHEN, INC

  • The competition brief for the Longgang district of Shenzen called for four separate buildings: a childrens center, a sci-ence museum, an art museum, and a bookstore. The site is a linear strip of land sandwiched between a large park and an area of the city that will soon be redeveloped.

    This series of buildings must act as a mediator, fi ltering pe-destrians through from the city to the park. The divisions between the buildings create pedestrian streets. The forms of the buildings bend and twist to direct views of the park and of the city.

    Longgang District Museums

    Shenzen, ChinaPreston Scott Cohen, Inc.Competition, 2010-2011

    10 hotel10-11 museums

  • facadeThe facade is the main method of connecting the four buildings, creating an overall fi gure. These facades are composed of planar elements that form doubly-curved surfaces. The scale of the pattern is in constant motion. Sometimes the pattern contracts or expands while oth-er times the turn of a corner corresponds to an abrupt jump in scale.

    1 defi ne isocurve pattern circles at intersections for spacing

    2 tangent lines in pinwheel pattern 3 intersect tangent lines 4 generate curvature for fi rst pinwheel set of planes

    5 work outward to consecutive sets 6 construct planes perpendicular to normal

    7 construct isocurves 8 construct network surface from isocurves

  • 10 hotel10-11 museums

  • 10 hotel10-11 hotel

    On this hilly site, surrounding a valley, the Yuzhou hotel wants to expand their facilities, building a brand new 5-star hotel as well as a conference center and sports complex.

    The site is a lush plateau in the middle of the city. For security reasons, the project brief contained strict constraints in terms of height limits and views in certain directions. The design was a negotiation between the experience of garden villas and the effi ciency and connectedness of a large-scale modern hotel.

    Chongqing Yuzhou Hotel

    Chongqing, ChinaPreston Scott Cohen, Inc.Competition, 2010-2011

  • The competition brief specifi ed that this was to be a gar-den hotel. This was translated into an idea for low, villa-like buildings set in a garden but connected through circulation into a cohesive whole. The fi nal design used system of branching courtyards that were split open and angled.

    The site had a strict height limit because of security con-cerns with sight lines to an existing villa used to accom-modate visiting governmental offi cials. This was dealt with by carefully orienting and angling wings away from forbidden views and towards desirable views.

    garden hotelORIGINAL: Branching Courtyards DISTORTED: Split open

    Hotel Typology Studies

  • 10 hotel10-11 hotel

    10 hotel10-11 hotel

  • The hotel contains 400 rooms and 40 suites. There are three levels of rooms and a fourth penthouse level of suites. The top level steps back to create a wide terrace around the perimeter of the building. The rooms are screened by a wood grill that is inspired by traditional Chinese garden screens but which uses parametric patterning to narrow as it approaches an opening.

    The transition hallways ramp to allow the building to step up or down with the landscape. The passageways surround garden courtyards and leave the rooms free to look out onto the site.

    rooms/suites

    Levels 1-3: Standard Rooms

  • North Wing: 5 Ro

    1:1200

    Level 4: Suites

    HOTEL

    CONFERENCECENTER

    SPORTSCENTER

    10 hotel10-11 hotel

  • 07-08 border

    As part of the GSAs Design Excellence Program, Hodgetts + Fung was asked to design a new border station on the U.S. Mexican Border. The border station is meant to be a Port of the Future, an effort to generate new ideas as a model for future stations. The main element of the project is a long canopy that shades the inspection area, com-posed of modules that can be prefabricated and joined on site.

    [This project was awarded the 2008 On the Boards Award by the GSA.]

    Donna Rio-Bravo Port of Entry

    Donna, TexasHodgetts + Fung Design and Architecture2007-2008

  • Because of the isolated nature of many border stations, the team investigated systems in which prefabricated modules could be assembled on site. The final solution consisted of a series of rigid composite polygons with translucent fabric stretched between to provide even, diffuse daylighting for the border agents while providing protection from direct sunlight.

    I was involved with this project from conceptual design through schematic design. I worked with a principal on the design and built the presentation model. I built Rhino models of the canopy module system and created diagrams and presentation drawings as well as working with two other designers and a project manager on the schematic design drawing set.

  • SECONDARY STRUCTURE

    PRIMARY STRUCTURE

    GALVANIZED CORRUGATED STEEL DECKING

    LIGHT FIXTURE ON TRACK FOR EASE OF MAINTENANCE

    OPENING IN STEEL DECKING TO ALLOW FOR MAINTENANCE ACCESS

    TEDLAR COATED TRANSLUCENT FIBERGLASS CLOTH

    EXTRUDED ALUMINUM ATTACHMENT

    PREFABRICATED CANOPY MODULE B

    PREFABRICATED BOX BEAM

    PREFABRICATED CANOPY MODULE A

    GALVANIZED STEEL CLADDING

    CATWALK FOR MAINTENANCE

    BALLISTIC GLAZING

    BOOTH DIFFUSER (PRESSURIZING BOOTH)

    STEEL BARRIER

    AUTOMOBILE EXHAUST INTAKE

    ROOFTOP AIR EXHAUST TURBINE

    INTAKE REGISTER (FROM CANOPY PLENUM)

    GALVANIZED STEEL CLADDING

    AUTOMOBILE EXHAUST EXTRACTION SYSTEM

    TRAFFIC SIGNAL

    MAINTENANCE CATWALK

    STEEL BARRIER

    BALLISTIC GLAZING

    BOOTH EYEBROW

    SUPPLY AIR DIFFUSER

    VEH. EXHAUST INTAKE

    HIGH VEHICLE BARRIER

    ROOFTOP AIR TURBINE

    VEHICLE EXHAUSTEXTRACTION SYSTEM

    INTAKE REGISTER FROM CANOPY PLENUM

    GALVANIZED CORR.STEEL DECKING

    07-08 border

  • The project was initiated by a campus master plan, lay-ing out a phased plan for the growth of Jesuit High School onto recently-purchased adjacent lands. The centerpiece of the fi rst part of this expansion is a 13,000 square foot, 400-seat chapel for the campus.

    The chapel will present a new face for the campus, serv-ing both as a worship space for the student body and the larger community. The project was heavily guided by the values and beliefs of the Jesuit order as well as the needs of the school.

    Jesuit High School Chapel of the North American Martyrs

    Carmichael, CaliforniaHodgetts + Fung Design and Architecture2007-2009 07-09 chapel

  • FAIR OAKS BOULEVARD

    FAIR OAKS BLVD.

    AMERICAN RIVER DRIVE

    JAC

    OB

    LA

    NE

    LANTERN CT.GO

    RD

    ON

    LA

    NE

    LEGEND:

    ROADS/PARKING LOT

    PLANTED AREA

    SIDEWALK

    WATER

    SPECIAL PAVING

    TREE

    LANTERN COU

    EXISTING PARKING LOT:250 SPACES

    NEW PARKING LOT B: 46 SPACES

    NEW PARKING LOT A: 49 SPACES

    DROP-OFF AREA

    FIRE LANE

    NEW ROAD

    PROPOSED 8' CMU WALL

    WATERPLAZA ACCESSIBLERAMP

    RAISED PLANTEDAREA

    RETAINING WALL

    CONC. STEPS

    BENCH AROUNDPLANTER

    EXISTING 8' CMU WALL

    NEW ROAD

    EXISTING GYM

    EXISTING SLIFE CENTE

    PROPERTY LINE

    BERM

    BRIDGE OVERWATER

    EXISTING ENTRY ROAD

    PROPOSED CHAPEL

    CHAPEL ENTRANCE

    CHAPEL ENTRANCE

    WALKWAY

    TEMPORARY LOT

    SWALE

    PROPOSED SCHOOL SIGNAGE

    I was the main person responsible for this project under the project manager. My involvement spanned master planning, conceptual design, schematic design, and into design development. I worked directly with the prin-cipals on the design of the building, creating countless sketch models and digital studies and producing draw-ings and renderings for multiple presentations. This was the fi rms fi rst project in Revit and I led the Revit model-ing in the offi ce, creating standards and protocols to be used in future projects.

  • 07-09 chapel

  • F.F.E.76.20'

    F.F.E.76.20'

    T.O. WALL99.20'

    VESTIBULE/GATHERING

    101

    ELECTRICALROOM

    104

    EXPOSED WIDEFLANGE FASCIA

    A C

    CLERESTORY ABOVE CURVED WALL

    WOOD ENTRY DOORS

    LOWEREDCEILING ATENTRY

    WIDE FLANGE LATERALSYSTEM WITH GLAZINGSYSTEM BEYOND

    95.20'

    19' -

    0"

    4' -

    0"

    113.92'

    111.41'

    35' -

    3"

    2' -

    6"

    B.O. CEILING

    T.O. STEEL

    B.O. STEEL

  • Floor Plan

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    AltarMartyrs ShrineBlessed Sacrament ChapelMarian ShrineHoly Water FontReconciliation AreaDevotional ShrineDevotional ShrineDevotional ShrineSacristySacristyChoir

    07-09 chapel