Master of Architecture Portfolio

KEUNHYUK JANG 2013-2016 Portfolio

CONTENTS

ACADEMIC WORK

FLOATING RESORT Governor’s Island, NY

TRANSFORMER Highline, Manhattan, NY

VENTILATION MICRO HOUSING 13th st and Locust st, Philadelphia, PA

COMPETITION WORK

BLOW BY BREEZE Governor’s Island, NY

CONSULTATION WORK

UPLIFT Beer Sheba, Israel

POOL PARK Sydney, Australia

HAND DRAWING

RESUME

STREET OF BOSTON 9x12

ACADEMIC WORK

FLOATING RESORT Governor’s Island, NY CRITIC Homa Farjadi TEAM Keunhyuk Jang / Design, Diagram, Photoshop,

Physical model, Section, Plan Ritika Kapoor / Design, Render, Photoshop DESIGN STUDIO 2016 Spring Philadelphia, Pennsylvania Univerity of Pennsylvania

This project was inspired by Kikutake’s Floating Luxury Hotel with Metabolism theory.

Also, the structure has been inspired from cruise ships submarine system. By using ballast tanks system, the structure submerges like a submarine, floats like a ship and can control being a part of it inside and a part outside the water like an iceberg. While on the other hand every unit is an architectural unit and has internal spaces. The units can be combined to create larger spces and can create spaced between them to grow and urbanize.

As part barge and part hulking cruise ship, Kikutake’s 500-room Floating Luxury hotel (1977) was to be constructed by shipbuilders and towed to shore. This was to be both a “free zone” with legalized gambling and a microcosmic city with its own water, waste, and energy systems. Also, prefabricated units is concerned for vertical and horizontal growth.

Throughout those concepts, this project is embracing forces of renewal, recycling, and transformation.

Floating Luxury Hoteal, Saudi Arabia 1977

Float on-Float off ships (Flo-Flo Ships)

Physical Replica Model Study

The Prinsiple of Submergence and Emergence

Semisubmersible ships. Provide capability to carry offload outsized military cargo and equiopment.

These ships are designed to take on ballast water in floodable tanks that partially submerges the vessel. Cargo is then floated over the submerged portion of the vessel which then deballasts and surfaces under the cargo. After the vessel is full afloat, the cargo is secured for transport.

Lifts range from 50 to 45,000tons.

Floating Resort | Portfolio | Keunhyuk Jang | 2016

Analysis and Application of Kikutake’s Metabolism

Solid (Box)

Components

Dispersion/ Erosion

Congregation

Chracteristics of The Application

Porosity

Open Structure

Flexibility, Transformability

Horizontal and Vertical Connection System

Moving

Horizontal Attaching and Pinning

Vertical Attaching and Pinning

Structural Interpretation

Unit Structure Floating Resort | Portfolio | Keunhyuk Jang | 2016

Horizontal Attachment

Vertical Attachment

Exploded Structure Unit Ceiling Glass ceiling for lighting

Glass panel

Sturcture

Floor

Interaction with water

Sketches of Water Interactions

Floating Resort | Portfolio | Keunhyuk Jang | 2016

W9W9

Sectional submergence and Connections

W8W8

W7W7 Water Lvl at W5 W6W6

W5W5 Water Lvl at W4

W4W4

Water Lvl at W3 W3W3

W2W2 Water Lvl at W0

W1W1

Horizontal submergence and Connections

Water Lvl at W5

Water Lvl at W4

Water Lvl at W2

W0 Ballast tank space

W0

B1 Ballast tank spaceB1

Water Lvl at W0 Floating Resort | Portfolio | Keunhyuk Jang | 2016

Water Lvl at B2

Water Lvl at B1

B2 Ballast tank space

B2

W9

W8

W7

W6

W5

W4

W3

W2

W1

W0

B1

B2

1 1 1

1 1

2 1

1

1

4

1

3

2

1 1 1

9 1

1 1

1

10

1

10

1

3

10

10 1 1 1

4 1

1. Bedroom 2. Control Area 3. Common Area 4. Staircase to the loft

Portfolio | Keunhyuk Jang | 2016

2

1. Bedroom 2. Control Area 3. Common Area 1. Hotel Room Core 4. Staircase to the 2.3.loft Gym Scale- 1:100

4. Pool 5. Jacuzzi 6. Yoga 7. Spa 8. Outdoor Area 9. Restaurant 10. Shops

1

1. Hotel Room 2. Core 3. Gym 4. Pool 5. Jacuzzi 6.Yoga 7. Spa 8. Outdoor Area 9. Restaurant 10. Shops

TRANSFORMER Highline, Manhattan, NY CRITIC Franca Trubiano TEAM: Keunhyuk Jang / Design, Diagrams, Sections, Simulation, Physical Model Whitney Chow / Design, Diagrams, Renders, Plans, Sections DESIGN STUDIO 2015 Spring Philadelphia, Pennsylvania Univerity of Pennsylvania

Inspired by the energy transferring mechanism of water ripple, we have developed a bio machine that was aggregated from tensile strucutres that follows similar energy transference logic of water ripples. Subsequently, we have generated a series of paper modules to study the volumetric and aggreagation potential of each bio-machine to be further developed into building scale. Given that both the tensile structure and the physical model provide very poor structural argument to our project. We have redesigned a column and beam system by identifying the horizontal and vertical alignment of the volumetric model.

ripples created by each birds are influencing each other as they overlap.

The objective of this study is to examine the change in water surface texture in respond to delta time and delta bird movement. From the first few slides, we can see that the water movement on the river surface has its own logic of transformation in a clear direction as it progress through delta (t).

Waves on Water

By introducing the birds, it creates The objective of this study is to local distortion on the water surface examine the change in water surface that gradually expands through texture in respond to delta time and time. The manner which these nucledeltaisbird movement. From the first us of distortion expand dictated by the direction where birdwe are can see that the water few the slides, progressing. Nevertheless, the set movement onofthe river surface has ripples created by each birds are of transformation in a its own logic influencing each other as they overclear direction as it progress through lap.

Section View Wave Study

delta (t).

By introducing the birds, it creates local distortion on the water surface that gradually expands through time. The manner which these nucleus of distortion expand is dictated by the direction where the bird are progressing. Nevertheless, the set of ripples created by each birds are influencing each other as they overlap.

Transverse waves make particles of medium vibrate perpendicular to the direction of wave motion.

Section View Wave Study

Homeostasis -> Surface tension -> Tensigrity Surface

Homeostasis -> Surface tension -> Tensigrity Surface

From the top view and imaginary section drawing, I felt that water has From the top view and imaginary homeostasis to keep their original section drawing, I felt that water has homeostasis to keep their original Agents (birds orform windbysotension. on) on water propagate Throughout the waves ten- by interaction forces between form by tension. Throughout the tenor molecules) of ainterference, medium. and outside water sion and outside interference, water particles(atoms sion geometry shows responsiveness with geometry shows responsiveness with component perpendicular to a pair to initiate a contraction,the chain reaction. Overall, water is more As a force is applied like a “gel” consisting of a single, It is a chain reaction. Overall, water is more Huge hydrogen-bonded cluster but it to the force would expand. still consists of polymetric clusters. like a “gel” consisting of a single, It is a Huge hydrogen-bonded cluster but it Homeostasis -> still consists of polymetric clusters.

Surface tension -> Tensigrity Surface

Motion Diagram

Singe Edge Attachment

Bio Machine Basic Module Study

From the top view and imaginary section drawing, I felt that water has homeostasis to keep their original form by tension. Throughout the tension and outside interference, water geometry shows responsiveness with chain reaction. Overall, water is more like a “gel” consisting of a single, It is a Huge hydrogen-bonded cluster but it still consists of polymetric clusters.

Motion Diagram

Motion Diagram

Singe Edge Attachment

Double Edge Attachment

Top

Front

Perspective

Singe Edge Attachment

Arm

Central

PERSPECTIVE PERSPECTIVE

PLAN

PLAN

Top

Central ELEVATION

AggregationELEVATION of the Bio Machine

PERSPECTIVE

Front

Perspective

Spatial Study of the Module

Space and Structure Study

Structural Phisical Model

PLAN

Environmental Study

Shade System Deploy

Shade System Motion

Shade Pattern Study based on the radiance simulation

exhausted air enters from louver at leveled with ceiling exhausted air enters from louver at leveled with ceiling

DECKING

DECKING

air travel from lower level of a unit to the higher level air travel from lower level of a unit to the higher level

fresh air enters from louver at leveled with floor fresh air enters from louver at leveled with floor

Metal Cable

Relaesing Cable

Pulling Cable Shoulder Season

Fabric Holder

Shoulder Season

Fabric Shade

Seaonal Ventilation Strategy Returning Air

Returning Air

Returning Air

30°C

30°C exhausted air enters from louver at Exhausted air enters leveled with ceiling from louver at leveled with ceiling

heat from appliances, human, etc heat from appliances, human, etc

Supply Air

21°C 19°C 21°C 19°C

air travel from lower level of a unit to the higher level

Summer Season

DECKING

ducts feed into the rised floor plenum,air Supply Air can travel 15 m without ducts ducts feed into the rised floor plenum,air can travel 15 m Summer without ducts

Supply Air

Summer

air travel from lower level of a unit to the higher level Returning Air air with neutralized temperature collected out of the space

fresh air enters from louver at leveled with floor

Returning Air

Returning Air

air with neutralized temperature collected out of the space

fresh air enters from louver at leveled with floor

Shoulder Season

Shoulder Season

hot air releases from underfloor air distribution units for heating occupying space hot air releases from underfloor air distribution units for heating occupying space

Supply Air 28°C

28°C

Winter Season

ducts feed into the rised floor plenum,air Supply Air can travel 15 m without ducts ducts feed into the rised floor Winter plenum,air can travel 15 m without ducts Winter

Returning Air

30°C

heat from appliances, human, etc 21°C

Supply Air

Supply Air

Detail Drawing • Details 2

1 Outer Glass Skin

2 Inner Glass Skin

1

3 Guard Rail

4 I-beam Coulmn

1

5 Raised Floor

4 2

3

5 6 7

6 Metal Deck

7 Ceiling Finish

• DETAILS 1 SHADE HOLDER

3

2 FABRIC SHADE

3 METAL CABLE

4

5 AIR VENT DECK

5

Site Plan

Ground Level 18TH ST.

W 18th St

18TH ST.

4 AIR VENT SASH

Highline Level

18TH ST.

Typical Office

18TH ST.

18TH ST.

18TH ST.

18TH ST.

N UP

RENTED SPACE

RENTED SPACE

UP

CONNECTING STARS (2 STOR Y OFFICE)

COMMUNAL SPACE

W 10th Ave

BATHROOM

LOBBY

UP

BATHROOM UP

EGRESS STAIRS ELEVATOR

UP

ELEVATOR

COMMUNAL SPACE EGRESS STAIRS

RENTED SPACE

BATHROOM UP

UP

UP

EGRESS STAIRS

RENTED SPACE

BATHROOM

BATHROOM UP

UP

COMMUNAL SPACE

RENTED SPACE

OFFICE

OFFICE

BATHROOM UP

UP

LOBBY

EGRESS STAIRS

EGRESS STAIRS

RENTED SPACE ELEVATOR

ELEVATOR

EGRESS STAIRS

RENTED SPACE

HIGH LINE ENTRANCE

ELEVATOR

RENTED SPACE

RENTED SPACE

UP

UP

EGRESS STAIRS

STUDY ROOM

HIGH LINE ENTRANCE

HIGH LINE ENTRANCE

LOBBY LOBBY

RENTED SPACE

BATHROOM UP

UP

UP

COMMUNAL SPACE RENTED SPACE

ELEVATOR

BATHROOM UP

UP

LOBBY

LOBBY

EGRESS STAIRS

STUDY ROOM

ELEVATOR

EGRESS STAIRS

STUDY ROOM

ELEVATOR CONFERENCE ROOM

LOBBY

W 17th St

COMMUNAL SPACE

LOBBY

BATHROOM

UP

CONNECTING STARS (2 STOR Y OFFICE)

COMMUNAL SPACE COMMUNAL SPACE

RENTED SPACE OFFICE

LOBBY

UP

CONNECTING STARS (2 STOR Y OFFICE)

COMMUNAL SPACE COMMUNAL SPACE

ELEVATOR CONFERENCE ROOM

CONFERENCE ROOM

18TH S

13

9

8

7

6

5

4

3

1

2

12 FT

LEVEL 22

CAFETERIA

EGRESS STAIR

LEVEL 21

SKY LOUNGE

TYP

SKY LOUNGE

LEVEL 20

TYP

TYP

W 17th St

10

N W 10th Ave

W 18th St

11

12

OFFICE

LEVEL 19

CONFERENCE ROOM

TYP

LEVEL 18

OFFICE

TYP

LEVEL 17

CONFERENCE ROOM

OFFICE

LEVEL 14

OFFICE

LEVEL 13

CONFERENCE ROOM LEVEL 12

TYP TYP

LEVEL 15

CONFERENCE ROOM

TYP

TYP

TYP

TYP

LEVEL 16

OFFICE

LEVEL 11

CONFERENCE ROOM

OFFICE

TYP

TYP

LEVEL 10

LEVEL 9

CONFERENCE ROOM

TYP

LEVEL 8

OFFICE

TYP

LEVEL 7

CONFERENCE ROOM

TYP

LEVEL 6

TYP

LEVEL 5

CONFERENCE ROOM

TYP

TYP

LEVEL 4

OFFICE

LEVEL 3

MULTI -PURPOSE ROOM

TYP 12 FT

18TH STREET

LOUNGE

TYP

TYP

LEVEL 2

LOUNGE

LEVEL 1

17TH STREET

LOBBY GROUND

RENTED SPACE

RENTED SPACE

BASEMENT 1

BASEMENT 2

CROSS SECTION 3/32” = 1’ -0

8

7

6

5

3

4

1

2

W 18th St

W 10th Ave

N

LEVEL 21

SKY LOUNGE

W 17th St

LEVEL 20

ELEVATOR

STAIR

LEVEL 19

TYP

TYP

TYP

12 FT

LEVEL 22

CAFETERIA

CONFERENCE ROOM

TYP

LEVEL 18

OFFICE

TYP

LEVEL 17

TYP

LEVEL 16

TYP TYP

LEVEL 15

CONFERENCE ROOM

OFFICE

LEVEL 14

TYP

LEVEL 13

TYP

LEVEL 12

TYP

LEVEL 11

CONFERENCE ROOM

TYP

LEVEL 10

OFFICE

TYP

LEVEL 9

TYP

LEVEL 8

TYP

LEVEL 7

CONFERENCE ROOM

TYP

LEVEL 6

OFFICE

TYP

LEVEL 5

TYP

LEVEL 4

HIGHLINE ENTRANCE

TYP

LEVEL 2

LOUNGE

TYP

ATRIUM

LOBBY

17TH STREET

LEVEL 1

GROUND ENTRANCE GROUND

12 FT

TYP

18TH STREET

TYP

LEVEL 3

LOBBY

COMMUNAL SPACE BASEMENT 1

RENTED SPACE BASEMENT 2

LONGITUDE SECTION

VENTILATION MICRO HOUSING 13th st and Locust st, Philadelphia, PA CRITIC Brian Phillips TEAM: Keunhyuk Jang DESIGN STUDIO 2014 Fall Philadelphia, Pennsylvania Univerity of Pennsylvania

Today’s row houses are tightly sealed and built with energy efficiency. While this is good for keeping heated or cooled air, it also keeps uncomfortable odors and harmful pollutants trapped in your home.

Especially, ventilation is one way to improve the indoor air quality in those cases, and when we built high unit density building like the micro unit apartment, considering a ventilation might be an essential element for dwellers.

Windows are the passive way for ventilation but in terms of architecture design without thinking mechanical technology, it would be the interesting process if we can produce new passive ventilation system by using site context like this project.

Termite Mound Study (Natural Heat Exchanger)

Termite Mound Cutting Plans

Selected each plan images of the actual termite mound shows how ventilation works through out termite’s nest and how they controls the micro climates inside of the mound.

Concept from Termite Mound

Subway Air

Ventilation with Chimney Effect Air

Inlet and Outlet Air Termite mound has a concenpt of chimney effect. By breaking down each floors two different elevation parts. It is possible to achieve the effect from architectecture scale. Also this strategy help people to have intriguing spatial experiences.

Building Surface Design Strategy

Current Condition

Existing context

Needs of clear view

Current pedestrians circulation

Questions from New Building

Obstructed view by new building

Distrubing pedestrains circulation

Suggeted Solutions

Cutted edges for better view and circulation

Suggesting new clear view for pedestrains

Suggesting new pedestrains circulations by adding more gates, retails, and subway entrance on the ground level floor

Natural Ventilation Strategy Simulation

Ventilation Strategy from Prevailing Local Wind

Inlet Wind = 5.5 m/s

#010 The openness of center core which was inspired from termite mound shows enhancing the apartment unit ventilation. This simulation shows that unit air ventilation based on each situation (opening door, opening window,and closing door).

#011 By setting up a mountain type of structure on the ground level, ground level wind could enhance the apartment unit ventilation. Also, it leads to the better indoor air quality of pedestrians’ level in the lobby.

#012 The higher structure on the ground level could help to get better air ventilation performance compared with #012 simulation. These simulation shows that center core structure acts as the important basis of air ventilation for the whole building structure. When the chimney effect is added, the more powerful ventilation effect could be created in this building.

Floor Plans

1st Floor

2nd Floor

3rd Floor

High 3rd

High 2nd

Low 2nd

1st Fl

Air vent core

Low 3rd

Lobby

Cafe

Gym, Party room, Meeting room

Residential area

Air vent core

Typical Unit Detail

10th Floor

Unit Plan

Unit Exploded Axon

Unit Perspective

COMPETITION WORK

BLOW BY BREEZE Governor’s Island, NY TEAM: Keunhyuk Jang / Weather Data Diagram, Fabrication Strategy, Cost Estimate Gene Kim / Design, Fabrication Strategy, Diagram Bumjin Park/ Design, Render 2015 CITY OF DREAMS PAVILION COMPETITION Figment, NYC

The Blow By Breeze Pavilion is an open structure that repurposes plastic bags after they have been discarded and makes connections between nature and this synthetic material.

Governor’s Island is an escape from dense urban congestion for New Yorkers and its visitors, and the pavilion accentuates sensory experiences of the summer island breeze. The translucent qualities of the plastic bags are highlighted through their amalgamation as they are suspended to allow for the light recyclable material to sway in the wind to blend together with its surroundings. The design for the pavilion makes use of the whirling motion of wind to create an enclosure that invites inhabitants to playfully interact with the familiar, everyday commodity.

Sound Soundscape

12am

12pm

12am

Governor’s Island

12am

12pm

12am

12am

12pm

Manhattan Island

12am

Breeze Pavilion on Governor’s Island

Wind Annual Wind Direction Distribution (%) N NNW

NNE NNW

14 12

NW

WNW

NW

WSW

N NNE

14

NE

12

NNW

NE

12

NW

N NNW NNE

14

NW

NE

12

10

10

10

8

8

8

8

6

4

4

2

2

0 W

0

WSW

SW

ESE

SE

SE SSE S

WNW 6

WNW

Average wind speed E = 11mph W Gentle breeze

E

SSESSW S

ENE

ESE

SW SSW

ENE

6

4

4

2

2

0 W

0

WSW

WSW

SW

SW

NNE

14

10

WNW 6

W

Annual Wind Direction Distribution with Our Pavillion

N

NE

ENE

ENE

E

E

ESE

ESE

SE

SE SSE

SSESSW

SSW S

S

Blow By Breeze | Portfolio | Keunhyuk Jang | 2016

Structure Diagram

Main Truss: Steel Pipe OD 4” Sch40 Plastic Bag Line: Crack-resistant Polyethylene Tubing 4 mm Od, 1 mm Wall Thickness Sub Truss: Steel Pipe OD 2” Sch40

Tensile Supporter: Twisted Shock-Absorbing Nylon Rope 3/8” Diameter

Height = 18’ Depth = 50’

Ground Supporter: Soil and Bark-filled Fabric Bag

Width = 75’

Fabrication Method 3 2

2 4

Main Truss:Steel SteelPipe Pipe Main Truss:

1 Plastic Tube Plastic Tube

4

1

Blow By Breeze | Portfolio | Keunhyuk Jang | 2016

3

CONSULTATION WORK

UPLIFT Beer Sheba, Israel CLIENT MODU Architecture TEAM: Keunhyuk Jang / CFD Simulation Jihun Kim / Project Leader CFD VENTILATION ANALYSIS AND ENVIRONMENTAL DESIGN CONSULTANT 2014 Summer Philadelphia, Pennsylvania Isoenv

“Uplift,” a design proposal for an environmental education and training center, promotes the idea that learning about the environment should be based on sensorial experiences and not only on classroom teaching. The education center is a “living laboratory,” in which indoor environments are actively produced by selectively permitting outdoor weather inside. This simulation project proves that this design is actually permeable to the outside by using prevailing regional wind data.

Plan

Uplift | Portfolio | Keunhyuk Jang | 2016

Section

Ventilation Analysis of Floor Plan

7 m/s

Inlet Velocity = 7 m/s This simulation shows that air flow ventilation of floor plan when all the windows in the builidng are opened. The main corridor in the middle of this building shows most highest velocity (around 14.7 m/s). Other sub-corridors also shows enough ventilation(2.1 m/s~14.7m/s).

Floating Resort | Portfolio | Keunhyuk Jang | 2016

Louver design consultation

Before

After

7 m/s

Avg. 1.31 m/s

7 m/s

Inlet Velocity = 7 m/s Avg. Indoor Velocity = 1.31 m/s (Height level=1.7m)

Avg. 1.84 m/s

Inlet Velocity = 7 m/s Avg. Indoor Velocity = 1.84 m/s (Height level=1.7am)

3.0

3.0

2.5

2.5

max 2.0

avg 1.8

2.0

2.0 avg 1.3

1.5

1.5 1.0

1.0

0.5

0.5 min 0.4

0.0 m/s

max 2.7

existing airflow

existing average

min 0.3

0.0 m/s

optimized airflow

optimized average

By analyzing air flow velocity at the level of 1.7 meter, the graphs above assure that new design improves the air ventilation performance. Because it is important to increase air flow of adults height level rather than above people’s height level to achieve an comfortable environment. The each average numbers shows that new design increases air flow velocity 40% more than original plan at the height level.

Fig After’s yellow and greenish colors inside of building shows that overall air flow velocity was incresed by revising front louver design(direction and size). By applying double operable glasses behind louvers, we could achieve higher airflow velocity and ventilation.

Uplift | Portfolio | Keunhyuk Jang | 2016

POOL PARK Sydney, Australia CLIENT MODU Architecture TEAM: Keunhyuk Jang / CFD Simulation Jihun Kim / Project Leader CFD VENTILATION ANALYSIS AND ENVIRONMENTAL DESIGN CONSULTANT 2014 Summer Philadelphia, Pennsylvania Isoenv

The aquatic center in “Pool Park” is conceived as a series of interconnected pavilions permeable to the park. This assemblage of pavilions operates with the functionality of a single building while establishing different thermal zones for aquatic center activities. The pavilions are interconnected by a series of glazed pathways that provide building-scale “respiration”— bringing the outdoors in, opening and closing to “inhale” and “exhale” fresh air for the center.

From this project, our client wanted see how he can conceive their air and water ecologies by using overlapping micro-climates of shade

Exteriror

POOL PARK 04

POOL PARK 01

for the Gunyama Park and Green Square Aquatic Centre competition, creates an engaging acility that combines a park with an aquatic centre. The synthesis of the Gunyama Park and Square Aquatic Centre would break down the conventional borders between interior and eation activities. “Pool Park” would provide the community with a recreation facility that ctivities occurring in the landscape with those occurring within buildings. After all, a park can or fitness as much as an aquatic centre can be a space for socializing.

A PARK unyama Park should be flexible but resilient, capable of adapting to the diverse needs of the and to the unpredictable forces of the environment. The park would be organized by a ath within the landscape connecting an array of recreation and leisure activities. These park not be absolutely defined: their boundaries would overlap. Gradual transitions from one her would provide for different uses throughout the day.

uses native landscape typologies—grove, tall grassland, low grassland—to create natural, tions between the different areas in the park. Hardscape would also create gradual etween the native plantings by utilizing permeable paver systems for sustainable water t. These gradual transitions between landscape and hardscape areas would provide the with a park that could be experienced differently with each visit.

QUARE AQUATIC CENTRE Centre is not an autonomous building inside a park but a structure integrated with the park’s ogies. The Aquatic Centre is as a series of interconnected pavilions open to the park. This of pavilions operates with the functionality and economy of a single building, without g the scale of the park areas The pavilions are interconnected by a series of glazed at serve as the Centre’s “lungs.” The pathways’ operable glass systems respond to outside ening and closing to provide light and air deep within.

Design Strategy EXTERNAL VIEW OF GUNYAMA PARK AND AQUATIC CENTRE

RAINWATER IS COLLECTED FOR GREY WATER SYSTEMS AND RAIN GARDENS

ys bring the outdoors in, further synthesizing park and Aquatic Centre. Part of a series of bling views between the building and the landscape, at street level these pathways frame Gunyama Park to Zetland Road and Joynton Avenue. A ramp from the outdoor pool brings landscaped roof park, sloped to provide views into the pool and the multipurpose field. e top of the main lobby stairs, an observation platform provides a panoramic view of the

ND AIR ECOLOGIES ark and Aquatic Centre were conceived in terms of their air and water ecologies. The was designed to create overlapping micro-climates of shade. Each of the interconnected s a specific temperature range. Their temperature range is based on the fitness activities program pool to hydrotherapy to gym—and is controlled by the glazed pathways. The roof he pavilions are curved to direct and collect rainwater. In two pavilions, the roofs are sloped nwater in rooftop greywater pools located above the changing rooms and restrooms. In ns, the roofs are sloped to divert rainwater to nearby rainwater gardens in the park. These ardens, along with the park’s permeable paved surfaces, provide water management he park. The management of air and water in both Gunyama Park and the Aquatic Centre is he experience of fitness, recreation, and leisure in “Pool Park.”

Glazed pathways intergrate building and landsape, also provide clear views into park.

GLAZED PATHWAYS INTEGRATE BUILDING AND LANDSCAPE, ALSO PROVIDE CLEAR VIEWS INTO PARK

Pool Park | Portfolio | Keunhyuk Jang | 2016

Requested Simulation Sektch

Simulation Strategy Sketch between Opened and Closed

Opening of Retractable Wall

Natural Ventilation Analysis Retratable Wall Opened

Natural Ventilation Analysis Retratable Wall Closed

7.6 0.01m/s

0.10m/s

0.53m/s

1.51m/s

3.8 Detail of curtain wall

1.53m/s

2.76m/s

0.0 (m/s)

Regional wind These simulation shows how does the different micro climate conditions can be achieved from retractable wall’s operation and curtain wall. Throughout differecnt types of conditions, different programs can be applied.

Pool Park | Portfolio | Keunhyuk Jang | 2016

Street of Boston 9x12| Portfolio | Keunhyuk Jang | 2016

KEUNHYUK JANG keunhyukjang@gmail.com + 1-512-574-1729

Education

Work Experience

Jul 2013 – May 2016

University of Pennsylvania, Philadelphia, PA • Master of Architecture • Ecological Architecture Certificate

Aug 2009 – Jul 2010

University of Texas, San Marcos, TX • Studied Business Administration

Aug 2008 – Jul 2009

Austin Community College, Austin, TX • Studied Accounting

Jul 2005 – Jul 2007

Central Texas College, Killeen, TX • Business Administration • ESL

Feb 1999 – Feb 2005

Kangwon National University, Chuncheon, South Korea • Bachelor of Science in Engineering, Agricultural Engineering

Software Skills • • • • • • • • • • • • • • •

Rhinoceros Revit AutoCAD Ansys CFD Diva Honeybee / Ladybug Design Builder Grasshopper Maxwell Render Keyshot Render Photoshop Illustrator Indesign Aftereffect Microsoft Office

May 2014 – Aug 2014

Research Asistant, ISO env, LLC – Philadelphia, PA Complete CFD analysis consultant project with MODU architect • Suggesting indoor air comfort design strategy • Providing outstanding louver system to maintain natural ventilation system

Feb 2010 – Apr 2011

Field Coordinator, F&A Engineering, LLC – Austin, TX • Scheduling and execution of gas and utility pipe lines prefabrication projects in Samsung Austin Semiconductor facility • Working in culturally diverse group to produce high quality products and services for various pipe lines

Dec 2009 – Feb 2010

Field Engineer, EBT Construction, Inc – Austin, TX • Communication and relationship management between Korean field engineer and American filed workers for demolition project

Feb 2002 – Apr 2004

Manager of Post Exchange, Korea Military Service – Chuncheon, Korea • Inventory management • Purchase order & Sales

Feb 2000 – Apr 2002

Lab Research Assistant, Automatic Control Lab of Kangwon National University – Chuncheon, Korea • Assisted a research for mushroom spore cultivation automatic sprinkler development