Undergraduate Portfolio 2012-2015

Page 1

JENNAH BYRD UNDERGRAD PORTFOLIO



TABLE OF CONTENTS

04 BUMP + MIND 10 CENTRE DE JEUX ARCHÉOLOGIQUE 14 DATUM 20 INSIDE TRANSITION OUTSIDE 24 BIO - BREW 28 PEARCE SCOTT ARCHITECTS 29 STUDY ABROAD


BUMP + MIND

Commes Des Garcons Boutique + Showroom

This studio used fashion precedence to design a seven story boutique and show room for the fashion house, Commes Des Garcons. We studied Tom Wiscombe’s “objects within objects” ontology to begin the design process. This building is designed to be in Aoyama, Tokyo across from its competitor, Prada. These large bubble-like components divide and manipulate the structure, program, and façade of the Comme Des Garcons Boutique and Showroom. Most of the chunks are occupiable, but some of them are used to display collections from the brand. The chunks influenced the placement of the floor plates, rooms, and program of the building. The figural cuts around the chunks were formed from the most important parts of the physical model. They represent the fashion line through seemed edges that tear apart like fabric. The interior chunks were inspired by the fashion precedence. The tattoo is based off of the organic shape of the building. The shapes in the tattoo were inspired by the ripped seam cuts in the building. The experience of the exterior is different from the interior experience. In order to create a contrast between the two. The chunks appear small from the exterior, but on the interior they become much larger and easier to classify as occupiable.


Site view from eye level


Commes Des Garcons 2010

(from far left) section, left, front, right elevations


Site view from eye level

Chunks ripping through the exterior fabric.

Site plan


Floor 1

FITTING ROOMS MENSWEAR BOUTIQUE CASH WRAP

OPEN TO BELOW CAFE

Floor 2 01

4

8

16

32

64

STORAGE

EXHIBITION SPACE

PERMANENT COLLECTION

OPEN TO BELOW

Floor 3 0 1 4

8

16

32

64

Interior render (right)



CENTRE DE JEUX ARCHÉOLOGIQUE

Interactive Museum and Research Center of Ancient Ruins

In the hidden hills of southern France, lies a site filled with ancient ruins dating back to the 12th century. It is now 2014 and as we stand on the site, the everyday life of the people who worked at this ancient winery are mostly forgotten. The challenge of this studio is to design a museum and research lab that will showcase the ruins and bring them back to life. The ancient ruins of Tourville, which date back to first Gaelic then Roman period, compose of a winery, small shops, areas where games where played, and residential architecture. During this study abroad studio, my partner and I researched which games were played and what activities were performed during the ancient Roman times when this area was booming. Our concept derived from the shape of the Roman colosseum. The colosseum surrounds the object of entertainment, highlighting the object as the center of attention. The main goals of this project were to keep the architecture simple so that the ruins are the main focus, and create a playground experience that allows both adults and children to rediscover the ruins. We designed an interactive museum, using modern learning techniques to experience the ancient culture.

View of the ruins (right)



1

2 3 4 5 6 7 8

1. White Polyurethane Membrane 2. Waterproof Plaster 3. Waterproof Concrete Structure 4. Thermal Insulation 5. Air Chamber 6. Aluminum Substructure 7. Plasterboard 8. White Painting 9. White Resin Floor 10. Concrete Slab 11. Concrete Foundation Footing 12. Waterproof Membrane 13. Mass Concrete Slab 9 10 12

11

13

Site plan

Wall section

North, and West elevations (from far left)

Interactive digital exhibit

Museum exhibit

Children’s “research lab”

Children’s interctive dig site

Research Lab


Floor I 0m

2m

4m

8m

16m

Floor 2 0m

2m

4m

8m

16m


DATUM

Skidaway Island Education and Research Facility

The main focus of this studio was to master site analysis. The task given was to design an education and research facility on Skidaway Island State Park. After three visits to the site to record data and study flora and fauna, is was evident that the surrounding environment would determine the outcome of my design. Skidaway Island is mostly hot, humid, and rainy. The tides are forever changing the coastline, making it difficult to construct on the site. My concept for this design was for the buidling to remain a datum, even when nature is constantly changing around it. This was possible through elevated foundations, light filtering shades on the south-facing windows, garage doors in the workshop for circulation, and sustainable materials. The program of this project includes a small museum area describing the history of the site, student classrooms, laboratories upstairs for research, a workshop where the boats are docked, and indoor/outdoor showers for both researchers and student coming in from the marsh. In this studio I learned how to manipulate site, study sun and rain patterns, and build according to the terrain and climate.


Site plan of Skidaway Island State Park


Site photo

Concept watercolor sketches (above)

Vehicular traffic

Pedestrian traffic

Site topography lines (2ft.)

Site boundary line


Exterior render

Site photo

Floor III (observation tower)

Floor II

Floor I


Exterior render

Wall section detail

Section detail (left) Elevations (right)


Low tide

High tide

Interior Render


INSIDE TRANSITION OUTSIDE

Chatham County Police Department’s Halfway House for Men

In Savannah, Georgia, there is a high rate of recidivism at the Chatham County Detention Center. In efforts to lower the rate and help transition prisoners back in to the modern world, we are to design a halfway house in the heart of downtown. This is risky, as many of the residents have young children and would prefer not to have felons near family activities. In order to keep the residents of Savannah happy and rehabilitate the transitioning prisoners, the architecture must contain a multitude of security levels. My design was developed based on the theories demonstrated by the Panopticon. The Halfway house is located across the street from the Chatham County Courthouse, creating a sense of surveillance. The concept of my design is to bridge a connection to the courthouse by using an actual bridge on the top floor, connecting the high security level of the halfway house to the courthouse. A shift in the building mass helps to create a divide between maximum and minimum security. The program of the building includes a public cafeteria, technology rooms, community living rooms, private bedrooms and bathrooms, laundry facilities, and offices on the top floor for the security. If anything were to go against protocol, inmates would be brought to this floor to the holding cells until they need to be seen at the courthouse, using the bridge. Each residential floor has a centrally located security station, using the Panopticon as inspiration.



BUILDING MASS HELPS TO DE BETWEEN MAXIMUM CONCEPTA STATEMENT NIMUM SECURITY. BRIDGE THIS PROJECT IS A HALFWAY HOUSE FOR MEN SECURE FLOOR CONNECTS THAT HAVE RECENTLY LEFT THE CHATHAM N COUNTY DETENTION CENTER IN SAVANNAH, USE AND THE COURTHOUSE. GA. IT IS OWNED BY THE CHATHAM COUNTY M POLICE DEPARTMENT AND USED AS A WAY CONCEPT STATEMENT H, TO TRANSITION THE PRISONERS FROM Y HIGH SECURITY TO LOW SECURITY AND TO CONNECT THEM TO THE COURTHOUSE SO Y THERE IS STILL A SENSE OF IMPRISONMENT. STRUCTURE DIAGRAM M A SHIFT IN THE BUILDING MASS HELPS TO CREATE A DIVIDE BETWEEN MAXIMUM O SECURITY AND MINIMUM SECURITY. A BRIDGE O FROM THE MOST SECURE FLOOR CONNECTS THE HALFWAY HOUSE AND THE COURTHOUSE. T. STRUCTURE DIAGRAM CIRCULATION INSIDE O BUILDING M E PERFORATED ALUM. SCREEN S E. THIS PROJECT IS A HALFWAY HOUSE FOR MEN THAT HAVE RECENTLY LEFT THE CHATHAM COUNTY DETENTION CENTER IN SAVANNAH, GA. IT IS OWNED BY THE CHATHAM COUNTY POLICE DEPARTMENT AND USED AS A WAY TO TRANSITION THE PRISONERS FROM HIGH SECURITY TO LOW SECURITY AND TO CONNECT THEM TO THE COURTHOUSE SO THERE IS STILL A SENSE OF IMPRISONMENT. A SHIFT IN THE BUILDING MASS HELPS TO CREATE A DIVIDE BETWEEN MAXIMUM SECURITY AND MINIMUM SECURITY. A BRIDGE FROM THE MOST SECURE FLOOR CONNECTS THE HALFWAY HOUSE AND THE COURTHOUSE.

STRUCTURE DIAGRAM

CIRCULATION INSIDE BUILDING

PERFORATED ALUM. SCREEN LOW E CURTAIN WALL

PRECAST CONCRETE

STEEL BEAMS / COLUMNS

LOW E CURTAIN WALL SITE PLAN 0-1”= 64’-0”

PRECAST CONCRETE

CIRCULATION INSIDE BUILDING LEGEND 1. LOBBY 2. MEETING ROOMS 3. MAIN OFFICE 4. CAFETERIA 5. KITCHEN 6. MECHANICAL SHAFT 7.PRIVATE ENTRANCE 8. COMMON AREA 9. SECURITY DESK 10. COMPUTER LAB 11. WORKOUT ROOM 12. LAUNDRY 13. MECH. SHAFT 14. DORM ROOM 15. HIGH SECURITY CHECK POINT 16. HOLDING CELLS 17. BRIDGE TO COURT HOUSE 18. COMMON AREA 19. POLICE ADMINISTRAION

11

5

6

12

16

PERFORATED ALUM. SCREEN LOW E CURTAIN WALL

7

PRECAST CONCRETE

STEEL BEAMS / COLUMNS 15

4 14

10

19

9

3

8

2

D PAINTED ALUM. COPING Y CIRCULATION INSIDE PARAPET WALL ING ROOMS CANTBUILDING STRIP LEGEND EPDM SHEET OFFICE SLOPED FLAT ROOF 1. LOBBY TERIA 2. MEETING ROOMS 3. MAIN OFFICE HEN 4. CAFETERIA HANICAL SHAFT 5. KITCHEN 6. MECHANICAL SHAFT TE ENTRANCE 7.PRIVATE ENTRANCE MON AREA 8. COMMON AREA RITY DESK 9. SECURITY DESK 10. COMPUTER LAB PUTER LAB 11. WORKOUT ROOM KOUT ROOM 12. LAUNDRY PERFORATED ALUM. SCREEN 13. MECH. SHAFT NDRY 14. DORM ROOM H. SHAFT 15. HIGH SECURITY CHECK POINT FINISHED FLOOR METAL DECKING M ROOM 16. HOLDING CELLS 16” OPEN WEB JOISTS 32” O.C. 17. BRIDGE TO COURT HOUSE H SECURITY CHECK POINT CONNECTION FOR ALUM. SCREEN 18. COMMON AREA INSULATION OF CONNECTION DING CELLS 19. POLICE ADMINISTRAION GE TO COURT HOUSE8” STEEL BEAM INSULATION MON AREA DROP CEILING CE ADMINISTRAION

UP

11 FLOOR 1

FLOOR 2

0’-1” = 16’-0”

5

FLOOR 3/4

0’-1” = 16’-0”

6

4

PRECAST CONCRETE 7

FLOOR 5

13

0’-1” = 16’-0”

STEEL BEAMS / COLUMNS

10

10

9

3

9

3 8

2

UP

UP 1

2 11

1

SECTION 1

CANT STRIP

12

13

4

PAINTED ALUM. COPING PARAPET WALL 5 6

BRIDGE TO C.H.

12

7

5 6 WALL PERFORATED ALUM. SCREEN LOW E CURTAIN

WALL SECTION

11

0’-1” = 16’-0”

DOUBLE PANE CURTIAN WALL STEEL COLUMN W/ 1” GYP. BOARD

Section 3 - Callout 1

18

17 1

1

3/4” = 1’-0”

INTERIOR OF BRIDGE

13

UP

CONCRETE FOOTING

STEEL BEAMS / C

Concept diagrams

0’-1” = 16’-0”

7

SECTION 2

12

SOUTH ELEVATION

0’-1” = 16’-0”

0’-1” = 16’-0”

FLOOR 1

0’-1” = 16’-0”

13

UP JENNAH BYRD STUDIO III SPRING 2015 PROF. STROTHER

FLOOR 2

0’-1” = 16’-0”


NS

Concept sketch Interior render

SITE PLAN 0-1”= 64’-0”

INTERIOR OF BRIDGE

Concept sketch


BIO - BREW

Self-Sustaining Brewery AIA COTE Competition 2015

The Bio-Brew is an adaptive reuse renovation of a vacant fire department. Located in Savannah, Georgia, the site is on the corner of Martin Luther King Blvd. and Indian Street. This will be a very busy corner within the next few years, as there are multiple boutique hotel, retail, and restaurant designs being constructed by 2018 to extend Savannah’s riverfront. The program of this proposal is a self-sustaining brewery with three apartments on the top floor, designed to revitalize the north-west end of downtown Savannah. Being in one of twhe few cities with an open container law (allowed to drink alcohol in the downtown area), a brewery is the perfect solution to reactivate this once lively site. At roughly 12,600 square feet, the brewery’s building footprint is the same as the existing 1970’s building on the site. The building follows a cradle to cradle system, with hops growing on site for the beer then used as cattle feed, rainwater purified by reverse osmosis, then heated by a high concentration compound cycle for the brewing process, and yeast water is cleaned and used as process water.



if the rainwater is capon site and stored in a t3 cistern

T + AIR

48 48IN. IN.

SCORE

RAIN ANNUALLY RAIN ANNUALLY

SCORE

82% 82%

69% 69%

72% 72%

DAYLIGHTING DAYLIGHTING

51% 51% VIEWS VIEWS

75% 75% COMFORT COMFORT ANNUALLY ANNUALLY

TONS/YR TONS/YR 200 200 150 150 100 100 5050 0 0

ENERGY USE ENERGY USE ENERGY ENERGY GENERATION GENERATION POTENTIAL POTENTIAL

2 2 NET CO NET CO

-50 -50 -100 -100 -150 -150 -200 -200 ENERGY CONSUMPTION ENERGY CONSUMPTION FUEL CONSUMPTION FUEL CONSUMPTION ROOF PVPV (HIGH EFFICIENCY ROOF (HIGH EFFICIENCY NET CO 2 2 NET CO

TONS/YR TONS/YR 130 130 7 7 -146 -146 -9-9

SECTION

SECTION

Exterior render

SECTION

0

5

Section A

20

50

Wall Section


72%

DAYLIGHTING

SCORE

LIFE CYCLE ENERGY COST

82%

TONS/YR 200 150

51%

0

51%

DAYLIGHTING

75%

VIEWS

COMFORT ANNUALLY

COMFORT ANNUALLY

ENERGY GENERATION POTENTIAL

50

72%

69%

75%

VIEWSUSE ENERGY

100

LAND USE + SITE ECOLOGY

247K

4843% IN.

WINDOWS RAIN ANNUALLY

WA LL SECTION 1’ -0” = 0’-1/4”

PERFORATED DRAINAGE PIPE FOUNDATION/FOOTING

6

NET CO2

REBAR

14

19

-50 -100

14

-150

14

19 18

-200

TONS/YR 7 130

ENERGY CONSUMPTION FUEL CONSUMPTION

UP

18

1

-146

10

NET CO2

21 1

5

7

ROOF PV (HIGH EFFICIENCY

20

1

-9

17

UP

1

20

CC

22

21

1

1

AA

DN

23

2

1

22 1

21 24

DN

23

1

17

1

21

4

8

24

21

22

4

11

4 1

1

1

3

21 22

23 20 DN

16

UP

20

20

16

UP

20 22

1

23

21 22

13

23

15

9

DN

1

21

20

WATER CYCLE

23

15

20

100%

59

STORM WATER MANAGED

4500 ft

3

0

5

15

01 EGRESS 02 APARTMENT ENTRANCE 03 BAR / RESTAURANT 04 FERMENTING ROOM

20

06 COOLING ROOM 07 SYSTEMS MANAGEMENT ROOM 08 KITCHEN 09 RESTROOM 10 SMALL STAGE AREA

kBTU

11 OUTDOOR SEATING 12 RAIN GARDEN SEATING 14 RAIN GARDEN ON NORTH 82% SIDE 15 ROOF GARDEN

48 IN.

14

12

kBTU

CISTERN

12

100%

NET EUI

kBTU

72%

51%

TONS/YR 200

ENERGY GENERATION POTENTIAL

50 0

100%

-100

100%

NET EUI

4500 ft 3

12

kBTU

CISTERN

kBTU

14

NET CO2

43%

once the water is purified, it is sent to the roof for solar heating then to the WINDOWS kBTU brewery to brew beer

247K

100%-146

NET EUI

59

STORM WATER -9 MANAGED

4500 ft 3

kBTU

CISTERN

82%

69%

72%

DAYLIGHTING

51% VIEWS

75%

150

A green wall provides the brewery while cooling and shading the building

100

ENERGY GENERATION POTENTIAL

50 0

-150 -200

82%

69%

72%

DAYLIGHTING

ENERGY USE

-200

ENERGY CONSUMPTION

WINDOWS

FUEL CONSUMPTION

kBTU

ROOF PV (HIGH EFFICIENCY

82%

69%

72%

DAYLIGHTING

TONS/YR 200 150

51%

TONS/YR 130 7

-146

51%

75% COMFORT ANNUALLY

rain garden to capture rainfall

COMFORT ANNUALLY

ENERGY GENERATION POTENTIAL

6

2

ENERGY CONSUMPTION FUEL CONSUMPTION ROOF PV (HIGH EFFICIENCY NET CO2

1

-146

10

-146

1

FUEL CONSUMPTION

1

the sun’s heat is used to boil 4 water 1

ROSEMARY

UP

1

1

-146

UP

the double-sided solar 17 panel optimizes energy 4 collection

solar energy collection from top solar energy collection 4from under-side

3

7

NET CO2

LIG

1

17

STRAWBERRIES

TONS/YR 130

UP

2 8

-9

18

1

B I O C1 L I M A C T I C D E S I G N

-9

Rain gardens on each side AA of the building optimizes rainwater capture

7

14

19

5

7

ROOF PV (HIGH EFFICIENCY NET CO2

TONS/YR 130

ORANGES 18

TONS/YR 7 130

ENERGY CONSUMPTION FUEL CONSUMPTION

-200

14

19

HOPS 14

-200 NET CO2

heat from tanks is cap heat the bu

rainwater is purified on site and used as potable water

11

ROOF PV (HIGH EFFICIENCY

LIFE CYCLE ENERGY COST

75%

VIEWSUSE ENERGY

A green roof provides the brewery with seasonal fruits/veggies to infuse the beer with, while cooling and shading the building ENERGY CONSUMPTION

Exterior render

NET CO2

-9

Xeriscaping on the site keeps the local flora + VIEWS fauna healthy

-150 ENERGY GENERATION POTENTIAL

-150

NET CO2

COMFORT ANNUALLY

SCORE

LIFE CYCLE ENERGY COST

0 egress stairs act as stackNET CO -50 ventilation to let hot air es-100 cape through clerestories

-100

ENERGY USEhops, with

75%

VIEWS

SCORE

-50

TONS/YR 200

247K

4843% IN.

WINDOWS RAIN ANNUALLY

50

0

-50

kBTU

TONS/YR 200

COMFORT ANNUALLY

50

-100

kBTU

100

100

150

14

12

LIFE CYCLE ENERGY COST

48 IN.

51%

DAYLIGHTING

247K 14 L A N43% D US E + SITE ECOLOGY -150

NET CO2

7

SCORE

RAIN ANNUALLY

kBTU

TONS/YR 130

RAIN ANNUALLY

48 IN.

12

kBTU

CISTERN

ROOF PV (HIGH EFFICIENCY

59

STORM WATER MANAGED

59

4500 ft 3

-150

FUEL CONSUMPTION

69%

A green roof provides the brewery with seasonal fruits/veggies to infuse the beer with, while cooling and shading the building

-100

NET EUI

STORM WATER MANAGED

ENERGY CONSUMPTION

82%

ENERGY GENERATION POTENTIAL

50

-50

NET CO2

-200

72%

LIFE CYCLE ENERGY COST

A green wall provides the brewery while cooling and shading the building

100

0

-50

WATER CYCLE

247K

ENERGY USEhops, with

150

ENERGY

ENERGY USE

100

43%

COMFORT ANNUALLY

TONS/YR 200 150

14

once the water is purified, it is sent to the roof for solar heating then to the WINDOWS kBTU brewery to brew beer

kBTU

SCORE

RAIN ANNUALLY

75%

12

kBTU

CISTERN

48 IN.

16 UPSTAIRS SEATING 21 BEDRROMS 17 UPSTAIRS BAR 22 KITCHENS 18 RESTROOMS 23 LIVING ROOMS 19 OUTDOOR SEATING SECOND FLOOR 24 OFFICE VIEWS 69% DAYLIGHTING 20 OUTDOOR PORCHES

SCORE

13 OUTDOOR RAIN ANNUALLY

4500 ft 3

LIFE CYCLE ENERGY COST

WINDOWS

NET EUI

59

STORM WATER MANAGED

247K

43%

9

-9

13 the metal parabola reflects the sun’s rays to the underside of the panel, which increases the levels of energy obtained by the system

16

16

UP

15

15

sun heating the water tube cold/room temperature water turns to hot water

BB

kBTU

BB

14

12

Xeriscaping on the site keeps the local flora + fauna healthy

PUMPKIN

rainwater is purified on site and used as potable water

heat from the fermentation tanks is captured and used to heat the building

0

LAVEN5

15

20

01 EGRESS 02 APARTMENT ENTRANCE 03 BAR / RESTAURANT 04 FERMENTING ROOM

06 COOLING RO 07 SYSTEMS MA ROOM 08 KITCHEN 09 RESTROOM 10 SMALL STAG

reflective metal maximizes temperatures of the purified water

rain garden to capture rainfall

100% 100%

STORM WATER STORM WATER MANAGED MANAGED 3 4500 4500ft ft 3 CISTERN CISTERN

100% if the rainwater is captured on site and stored in a 4500 ft3 cistern

48 48IN. IN.

RAIN ANNUALLY RAIN ANNUALLY

NET EUI NET EUI

59 59 kBTU kBTU

SCORE

12 12

14 14

43% 43%

247K 247K

69% 69%

DAYLIGHTING DAYLIGHTING

72% 72%

51% 51%

75% 75%

kBTU kBTU

kBTU kBTU

WINDOWS WINDOWS

LIFE CYCLE LIFE CYCLE ENERGY COST ENERGY COST

SCORE

82% 82%

VIEWS VIEWS

COMFORT COMFORT ANNUALLY ANNUALLY

Solar - Thermal System


2015

PEARCE SCOTT ARCHITECTS

Exterior views of construction

Door head & sill detail

While working at Pearce Scott Architects, I learned how to produce construction documents, use Revit and Autocad efficiently, and work with real clients and business partners. Shown is the construction of two office buildings, in which I drew some of the construction documents

Door sill @ porch

Floor plans


STUDY ABROAD

The contents of this page are sketches from the SCAD study abroad program in Provence, France. During the eight weeks overseas, I took a travel portfolio class and bi-weekly went to new locations to sketch. These are a few of my favorite places/sketches.

2014

Gordes, FR Chateau La Coste Tadao Ando Analytique

Various doors of Apt, FR


THE END

PLZ ACCEPT ME


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