Portfolio 2024 Sara Miranda

SARA MIRANDA ARCHITECTURE

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SARA MIRANDA saramiranda234@ku.edu (785) 727-8186

EDUCATION

WORK EXPERIECE

UNIVERSITY OF KANSAS

O’CONNELL ROBERTSON

School of Architecture & Design Accredited Master of Architecture (M. Arch) Class of 2026 GPA 4.0

Architectural Intern Austin, Texas May 2023- August 2023 May 2024-August 2024

AWARDS & INVOLVEMENT

GUSTAVO DELLIEN ARQUITECTURA

Valedictorian of class of 2020 Highest French Baccalaureat score University Honor Roll (2021-2024) KU International Excellence Award President of National Organization of Minority Architecture Students (2025-2026) University of Kansas Equestrian Team

• Schematic Design • Revit Modeling • Client Meetings

Architectural Intern Santa Cruz, Bolivia July 2022- August 2022 • Schematic Design • AutoCad & Sketchup Modeling • Client Meetings • Site Visits

TIERRA DE HORTALIZAS- ECOLIFE INITIATIVE

Volunteer La Paz, Bolivia May 2019- August 2019 • Schematic Design • Construction Development

SKILLS

Computer Adobe Creative Suite Sketchup Pro Rhino3D Grasshopper Revit Enscape Microsoft Office Suite

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Technical Sketching Photography Sculpture Modeling Embroiderie

• Rendering • Site Visits • Presentations

LANGUAGES Spanish French English Italian Portuguese

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METAMORPHOSIS

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PRAIRIE PARK

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L’ARTE

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INHALA

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CHAKRAS

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PERSONAL WORK

Mixed-Use Facilty Center| FALL 2024

Pavilion| SPRING 2024

Art Center Facility | SPRING 2023

Regenerative Design Facility | FALL 2023

Pavilion | FALL 2023

Watercolors, Sculpture, Pastels, Sketches

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4

01

METAMORPHOSIS Mixed-Use Facility FALL 2024

PROJECT OVERVIEW Metamorphosis is a mixed-use architectural project designed to bridge generations, fostering meaningful connections between the elderly and youth. Inspired by the transformative cycle of life, the design emphasizes mutual growth through shared learning and interaction.

Integrating biomimicry and green building principles, the facility promotes sustainability, healing, and community. Key features include interactive spaces for gardening, art, and education, alongside natureinspired courtyards and energy-efficient systems.

Located by the Kansas River, the design balances vibrant engagement with serene privacy, uniting generations through architecture that inspires connection and transformation.

SOFTWARE USED • Revit • Sketchup • Enscape • Illustrator • Photoshop • Cove Tool

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80°F

125°F

Mitigate heat island effect

Thermal mass during winter

Water runoff reduction & storage

Evaporative cooling

Metamorphosis prioritizes energy efficiency and environmental sustainability through advanced building performance strategies.

Key features include solar shading systems and reflective roofing materials to reduce solar heat gain, high-performance glazing to minimize heat transfer, and strategic daylighting to maximize natural light throughout the space. Natural ventilation, enabled by courtyards and opposing openings, enhances airflow and indoor air quality, while green roofs and vertical gardens improve insulation, reduce heat absorption, and contribute to a healthier environment.

Together, these strategies ensure a comfortable, sustainable, and energyefficient building that supports its mission of healing and connection.

Opening Opening

Hot air escape through courtyard

Opening Cross Ventilation Opening Cross Ventilation

Opening

Green Body at the Center

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Cross Ventilation

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30

60

SOUTH FACING ROOF

• Photovoltaic Panels • Improve energy efficiency SHADING SYSTEMS:

• Building skin • Louvers • Overhangs • Trees SOUTH FACING ROOF

• Reduces heat gain • Natural insulation • Absorb rainwater

AIRFLOW

LANSCAPING

• Native Plants • Gardens WATER

• Permeable paving • Greenroofs absorption

Intended Strategies Solar Shading

Daylighting

Natural Ventilation

Incorporate sustainable shading solutions, such as overhangs and louver systems, on the south façade to minimize solar heat gain during summer when the sun is at its highest angle. These features not only block excessive sunlight, reducing interior overheating, but also enhance energy efficiency by lowering cooling demands.

Optimize the size and placement of windows, skylights, light wells and courtyards to maximize natural daylight penetration, reducing dependence on artificial lighting while improving occupant comfort and well-being.

Design the building to enable cross-ventilation by incorporating interior courtyards, strategically positioned openings, and operable windows or vents on opposite sides. These features promote passive cooling through natural airflow.

High Performance Glazing

Insulation

Vegetation

Utilize low-emissivity glazing with a high solar heat gain coefficient to reduce heat transfer while allowing natural daylight to penetrate the building. This approach ensures comfortable indoor temperatures and minimizes reliance on artificial lighting during the day.

Properly insulate walls, floors, and roofs to minimize heat transfer between indoor and outdoor environments.

Incorporating vegetation into building design, such as green roofs and vertical gardens, enhances insulation, reduces heat absorption, and improves air quality. Strategically placed trees and landscaping provide shading, lower surrounding temperatures, and mitigate urban heat islands. Ecological strategies, including support biodiversity, manage stormwater runoff, and create sustainable ecosystems around the building.

Reflective Roofing Select light-colored or reflective roofing materials to minimize solar heat absorption and reduce heat gain through the roof, particularly during the hot summer months.

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GUIDING DESIGN PRINCIPLES TRANSFORMATION Transformation is the graceful unfolding of life’s wisdom, where the beauty of aging lies not in resisting time, but in embracing the transformation it brings, revealing the depth, strength, and elegance of the soul.

CONNECTION Connection is the invisible thread that weaves together different communities and ages, bridging generations with shared stories, wisdom, and the common humanity that unites us all in our journey through life.

SOUL FULFILLMENT Soul fulfillment is the quiet joy that blossoms through change, as we embrace life’s transformations, allowing each new experience and challenge to align us with our deepest purpose and nourish our spirit with meaning, connection, and growth.

SENIOR HOUSING CLINIC DIAGNOSTIC PHYSICAL THERAPY CERAMICS RETAIL

Senior Housing Apartments

Senior Housing Apartments

PRE-SCHOOL

Senior Housing Apartments Senior Housing Apartments Procedure room

Breakroom Arts room

SENIOR HOUSING

Pool

CLINIC DIAGNOSTIC PHYSICAL THERAPY CERAMICS RETAIL

Administration

Meditation room Treatment rooms

Senior Housing Apartments

Massage therapy Administration

PRE-SCHOOL

Ceramics & Painting rooms

Classrooms

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Exam rooms

Meditation room

Stores

MASSING CONCEPT

Simple mass

Providing connections within the building

Creating enclosed outdoor spaces

Creating welcoming facades

Expanding the story

Bringing more dynamic

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1

UP

MAPLE STREET

PROCEDURE ROOM

TEAM CENTER

TEAM CENTER

B CLEAN SOILED UTILITY UTILITY

C

JANITORS STORAGE EXAM ROOM EXAM ROOM

NURSING STATION

NURSING STATION

WALKER STOR.

EXAM ROOM

EXAM ROOM

EXAM ROOM

D

UNIT FINANCES MANAGER

STORAGE

MED PREP

OPEN OFFICE

CONSULTATION

VITALS EXAM ROOM

EXAM ROOM EXAM ROOM

EXAM ROOM

EXAM ROOM

D

EXAM ROOM

EXAM ROOM

VITALS

STORAGE JANITORS

UNIT MANAGER

E

SALON

F

ARTS AND CRAFT

ADMIN

RED BAG WASTE

IT RR

STORAGE

MECH ROOM

UP

PATIENT RR

IMAGING GOWNING

SHARED OFFICE SPACES

LAB RR

IMAGING GOWNING

LAB CLEAN UTILITY

NUTRICIONIST

UNIT MANAGER FINANCES

MEDITATION ROOM

SOILED UTILITY

POOL TLT

CLINIC CLINIC RR RR

RR

G

6

7

VIEWING DIAGNOSTIC

SHARED JANITORS OFFICE

H

5

BLOOD DRAW

SOILED UTILITY

G

F

RED BAG WASTE

PUBLIC RR

RADIOLOGY OFFICE

CT

COMMUNITY AREA

POOL

E

RECEPTION

RADIOGRAPHY SHARED OFFICE

MASSACHUSETTS STREET

EDUCATION ROOM

STAFF RR STAFF RR

A

DN

BREAKROOM/ LOCKERS

8

9

MECH

RR

MASSAGE THERAPY MASSAGE THERAPY

CLEAN UTILITY

CONSULTATION

I

OPEN TREATMENT NURSING STATION

WALKER STOR.

DINNING HALL

J

VITALS

SMALL PRIVATE SMALL PRIVATE TREATMENT TREATMENT

KITCHEN

LARGE PRIVATE TREATMENT

STOR.

STAFF BREAKROOM

K

RR

RR

OVEN ROOM CERAMIC WORKSHOP

L

PAITING ROOM

M

CERAMICS SHOP

STOR. CLEANING AREA

RR

STORE 1

N

WAITING ROOM

STORE 2

STORAGE

KITCHENETTE

O

MEDITATION ROOM

RR

CLASSROOM

CLASSROOM

UP

RR

RR

MECH ROOM

COFFEE AREA PUBLIC RR PUBLIC RR

RR

CLASSROOM

STORAGE

INDOOR PLAYGROUND

RR PANTRY

5

STORAGE

MECH ROOM

CLASSROOM

RR

1 2 DN

10

30

10 1st FLOOR

60

3

4

6

7

8

9

Classroom module

EXAM ROOM MODULE

Exam Room module UP

CLASSROOM Classroom MODULE module

Ceramic Workshop module

4 3 2 1

UP

UP

Classroom module

Ceramic Workshop

CERAMIC WORKSHOP module MODULE

A B

D C

APT

APT

E

JANITORS

STOR.

D

APT

5

F

APT

G

APT

H APT

6

7

8

9

10

Apartment module MECH ROOM

APT

APT

APT

CC APT

APT

DD

J

APT

APT

AA BB

Exam Room module

I APT

G

N 2ND STREET

E

Exam Room module

APT

F

Apartment module

APT

EE

K JANITORS IT STOR. L HALLWAY

M

FF

GARDENING PATIO

BREAK ROOM

GG

NAPT

APT

STORAGE

APT APT

APT

MECH ROOM

O UP

APT

APT APT

APT

1

6

7

8

9

APT

APT

10

APT

2 APT

5

3

ROOFTOP PATIO

4

APT

10

30

60

2nd FLOOR STREET LOCUS

3rd FLOOR

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Variable Refrigerant Flow System (VRF)

Outdoor Unit (VRF

Variable Air Volume System (VAV)

Building bride

Outdoor Unit (VRF)

STRUCTURE

MEP Multilayered wooden facade

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15

35

Aluminum Framing

White Stucco facade

Terracota Hexagonal facade

Glazed Tiles facade

Liquid Line (Fully Liquid) Refrigerant Pipe (Liquid, Gas) Indoor Unit

Supply Air Ducts

Liquid Line (Fully Liquid)

Rooftop Unit (VAV)

Refrigerant Pipe (Liquid, Gas) Indoor Unit

Supply Air Ducts

Emergency exits Stairs Elevators

Liquid Line (Fully Liquid) Refrigerant Pipe (Liquid, Gas)

Horizontal circulation

Indoor Unit

Supply Air Ducts

Vertical circulation

EGRESS

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DETAILED WALL SECTION

WALL SECTION

8”= 1’00”

DETAIL 4 Roof

TOP OF ROOF 50' - 0"

TOP

3 TOC 45' - 0"

3RD FLOOR 35' - 0"

3

2 TOC 30' - 0"

DETAIL 3 Terrrace

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2ND FLOOR 20' - 0"

2

1 TOC 15' - 0"

DETAIL 2 Stucco Wall

1ST FLOOR 0' - 0"

1

DETAIL 1 Foundation

PARKING FLOOR -12' - 0"

PARKIN

Detail 4

1

1 2 3

4

4

5 6 1 7 2 8 3 9

5 6 7 8 9 10 4

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5 6 7 8 9

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10

8. 5/8” plywood sheathing 9. 1 1/2” metal deck 10. 4” rigid insulation 11. Metal joist hanger 12. Trus-joist roof joist system

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10 DETAIL 4 11

1. Snap-on netal cap flashing 1 2. 7/8” min. thickness three coat cement 2 1. Snap-on netal cap flashing 3 plaster on metal lath system 2. 7/8” min. thickness three coat cement 3. 6” structural metal stud plaster on metal lath system 3. 6” structural metal stud 4. Rigid insulation cant strip 4. Rigid insulation cant strip 5. Roof membrane 5. Roof membrane 6. 8” min. rigid insulation (slope to drains) 6. 8” min. rigid insulation7. (slope to drains) 1/2” Vapor barrier 7. 1/2” Vapor barrier 8. 5/8” plywood sheathing 1 1/2” metal deck 1. Snap-on9. netal cap flashing 8. 5/8” plywood 2.sheathing 10. thickness 4” rigid insulation 7/8” min. three coat cement Metallath joistsystem hanger 9. 1 1/2” metal deckplaster11.on metal 12. Trus-joist roof joist system 3. 6” structural metal stud 10. 4” rigid insulation 4. Rigid insulation cant strip 5. Roof membrane 11. Metal joist hanger 6. 8” min. rigid insulation (slope to drains) 12. Trus-joist roof joist system 7. 1/2” Vapor barrier

3/8”= 1’00”

12 28 29

31 32

30

Detail 3

DETAIL 4

DETAIL 4

3/8”= 1’00”

1 2 3 4

3/8”= 1’00” 28 29

31 32

30

31 32

30

DETAIL 3

16 17 18 19

22 23 24 25 26 27

DETAIL 3

3/8”= 1’00”

16 17 18 19

Detail 2 10 11 12 13

14 15 16 17 18 19

”

DETAIL 2

DETAIL 3

10 11 12 13 14 1522

23 24 2025 2126 27

3/8”= 1’00”

10 11 14 12 13 15

16 17 18 19

10 11 12 13

31 32

10 11 12 13 14 15

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16. R-19 6”batt insulation 1. Metal joist hanger 17. Load bearing 6” metal structural stud wal 2. 2 1/2” light weight reinforced concrete 18. 2nd layer of plywood sheathing (3/4”) slab (sloped to drain) 3. 1 1/2” metal deck 19. 5/8” drywall (wall finish) 20. Through wall flashing 4. Mass timber beam 21. window with 1” insulation glazing 5. Steel bolt 22. Room lighting 6. 5/8” steel plate (both sides) 7. Stee l angle 23. Sprinkler system 8. Flashing drip edge 24. drop out ceiling tiles 25. Diffuser 9. hanger Trust joist perimeter joists joist 16.

1. Metal hanger 16.

R-19 6”batt insulation 1. Metal joist Water sprinkler conductstud wal min.reinforced thicknessconcrete three coat cement 17. Load bearing 6” metal structural 2. 2 1/2”10. light7/8” weight 2. 2 1/2” light weight26. reinforced concrete 17.

27. ofCable tray sheathing (3/4”) 18. 2nd layer plywood to drain) 5 slab (slopedplaster 28. Metal hanger Metal slab (sloped19.to5/8” drain) 18. drywall (walljoist finish) 3. 1 1/2”11. metal decklath 6 12. Tyvek 20. Through29.wallTrust-joist flashing steel floor framing system 4. Mass timber beambuilding wrap 3. sheathing 1 1/2” metal deck 19. insulation 13. 3/4” plywood (exterior) 21. window30.with4”1”rigid insulation glazing 5.7 Steel bolt 14. plate 1” thick poly-iso insulation 31. Door threshold Room lighting 6. 5/8” steel (both sides) 4. rigidMass timber22.beam 20.

32.system Steel angle 15. 1” thick EPS sheathing 23. Sprinkler 7. Stee l angle 5. Steel bolt 24. drop out ceiling tiles 21.

8. Flashing drip edge Diffuser 9. Trust joist perimeter joists 6. 5/8” steel25.plate (both sides) 22.

26. Water sprinkler conduct 10. 7/8” min. thickness three coat cement 7. Stee l angle27. Cable tray 23. plaster 28. Metal 11. Metal lath 8. Flashing drip edgejoist hanger 24.

29. Trust-joist steel floor framing system 12. Tyvek building wrap Trust joist perimeter joists 25.

30. 4” rigid insulation 13. 3/4” plywood sheathing9.(exterior) 14. 1” thick poly-iso rigid insulation Door threshold 10. 7/8” min. 31.thickness three coat cement 26.

32. Steel angle 15. 1” thick EPS sheathing

1 2 3 4

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20 21

10 11 12 13 14 15

8 9

1 2 3 4

5

8 9

3/8”= 1’00”

1. Snap-on netal cap flashing 2. 7/8” min. thickness three coat cement plaster on metal lath system 3. 6” structural metal stud 4. Rigid insulation cant strip 5. Roof membrane 6. 8” min. rigid insulation (slope to drains) 7. 1/2” Vapor barrier 8. 5/8” plywood sheathing 9. 1 1/2” metal deck 10. 4” rigid insulation 11. Metal joist hanger 12. Trus-joist roof joist system

1 2 3 4

8 9

28 29

16 17 18 19

22 23 24 25 26 27

2 3

7

5 6 7

20 21

1 2 3 4 5 6 1 10 27811 3 12 4913 5 6 7 8 9

5 6

7 11 12 15.

Rigid insulation 1. 7/8” min. thickness three coat cement plaster 16. 1’8” reinforced concrete waffle slab 2.13 Metal lath 14 17. 3” spay insulation 3. Tyvek building wrap 15 18. 8” reinforced concrete wall below 4. 3/4” plywood sheathing (exterior) 1. 7/8” min. thickness gradethree coat cement plaster 5. 1” thick poly-iso rigid insulation 15. insulation 1. 7/8” min. thickness three coat cement plaster 2. Metal lath 19. Rigid Column pilaster beyond 6. 1” thick EPS sheathing 16. wrap 1’8” reinforced concrete waffle slab 3. Tyvek building 2. 20Metal lath 15. Rigid insulation 7. 1.Through-wall flashingthree coat cement plaster 7/8” min. thickness 17. sheathing 3” spay insulation 3. 21Tyvek building 4. 3/4” 16. plywood 1’8” reinforced concrete(exterior) waffle slab Metal lathjointwrap 8. 2.Expansion 18.insulation 8”rigid reinforced concrete wall below 4. 3/4” plywood sheathing (exterior) 17. spay 5.

1” thick3”poly-iso insulation 3. Tyvek building wrap 9. Exterior concrete slab reinforced concrete wall below grade 3/4”poly-iso plywood sheathing (exterior) 5. 1”4. thick rigid insulation 6. 1” 18. thick8”EPS sheathing 10. 5.R-191”6”batt insulation grade19. Column pilaster beyond rigid insulation 6. 1” thickthick EPSpoly-iso sheathing flashingbeyond 19. Column pilaster 11. 6.Load1”bearing metal structural stud wall 7. Through-wall thick EPS 6” sheathing 7. Through-wall flashing 8.

Expansion joint 7.

Through-wall flashing 12. 2nd layer of plywood sheathing (3/4”) 8. Expansion joint 9. Exterior concrete slab 13. 8.5/8”Expansion drywalljoint(wall finish) 9. Exterior concreteslab slab 9. Exterior concrete 10. R-19 6”batt insulation 14. 10.

2 1/2” light weight concrete slab 6”batt insulation 10. R-19 R-19 6”batt insulation 11. Load bearing 6” metal structural stud wall 11. Load bearing 6” metal structural stud wall 11. Load bearing metalsheathing structural stud wall 12. 2nd layer of plywood sheathing (3/4”) 12. 2nd layer of6”plywood (3/4”) 12. 2nd of plywood sheathing (3/4”) 13. layer 5/8” drywall (wall finish) 13. 5/8” drywall (wall finish) 14. 2drywall 1/2” light(wall weightfinish) concrete slab 13. 5/8” 14. 2 1/2” light weight concrete slab 14. 2 1/2” light weight concrete slab

16 17 18 19

1 2 3 4 5 6 7 8 9

1 2 3 4 5 6 7 8 9

plaster 11. Metal lath 812. Tyvek building wrap 913. 3/4” plywood sheathing (exterior) 14. 1” thick poly-iso rigid insulation 10 15. 1” thick EPS sheathing

R-19 6”batt insulation Load bearing 6” metal structural stud wal 2nd layer of plywood sheathing (3/4”) 5/8” drywall (wall finish) Through wall flashing window with 1” insulation glazing Room lighting Sprinkler system drop out ceiling tiles Diffuser Water sprinkler conduct 27. Cable tray 28. Metal joist hanger 29. Trust-joist steel floor framing system 30. 4” rigid insulation 31. Door threshold 32. Steel angle

1. Me 2. 2 1 slab 3. 1 1 4. Ma 5. Ste 6. 5/8 7. Ste 8. Fla 9. Tru 10. 7/8 pla 11. Me 12. Tyv 13. 3/4 14. 1” 15. 1”

3/8”= 1’00”

DETAIL 2

3/8”= 1’00”

Detail 1

10 9

8 7

10

11

11 12

12

9

6

5 4

11

8 7 6

DETAIL 1

13

13 12 3 132 1

3 2 1

1. Cast-in-place foundation footing 1’6” tall Cast-in-place foundation 1’6” tallaround drainage pipe 2. 1.Granular capillary breakfooting and drain Granularpipe capillary break and drain around drainage pipe 3. 2.Drainage 3. Drainage pipe 4. 4.Compacted Compactedearth earth 5. 5.Drainage 1. Cast-in-place foundation footing 1’6” tall DrainagePipe Pipe 1. Cast-in-place foundation footing 1’6”padtall(no fines) Granularcapillary capillary break break and 6. 6.Granular anddrainage drainage pad (no2.fines) Granular capillary break and drain around drainage pipe 2. Granular capillary vapor breakbarrier and extended drain around drainage pipe 7.

2” Polyethylene under grade 7. 2” Polyethylene vapor barrier extended under3.beam gradeDrainage beam pipe wherepipe it also acts as a capillary break 3. Drainage where it also acts as a capillary break 4.

Compacted earth 8. 4“ Extruded polystyrenne insulation 4. Compacted earth 8. 9.4“ Extruded polystyrenne insulation Slope to11 drain 5.

Drainage Pipe 5. Drainage Pipe pilaster beyond 9. 10.

SlopeColumn to drain 6. Granular capillary breakslab and drainage pad (no6.fines)Granular capillary break and drainage pad (no fines) 12” reinforced 10. 11.

Column pilaster concrete beyond 7.

Polyethylene vapor barrier extended under grade beam 1/2” Waterproof membrane 1/4“ drainage mat, &2” 7. 2”12.Polyethylene vapor barriersystem, extended under grade beam 11. 12” 1/4” reinforced concrete slab where it also acts as a capillary break protection board where it also acts as a capillary break 12. 13.

1/2”1’2”Waterproof membrane system, & polystyrenne insulation Concrete foundation reinforced wall 1/4“ drainage 8. 4“mat, Extruded 8. 4“ Extruded polystyrenne insulation 1/4” protection 12 board 9.

Slope to drain 9. Slope to drain 13. 1’2” Concrete foundation reinforced wall 10. Column pilaster beyond 10. Column pilaster beyond 13 11. 12” reinforced concrete slab 11. 12” reinforced concrete slab 12. 1/2” 12. 1/2” Waterproof membrane system, 1/4“ drainage mat, &Waterproof membrane system, 1/4“ drainage mat, & 1/4” protection board 1/4” protection board

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2-BEDROOM APARTMENT

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CERAMIC WORKSHOP

TERRACE APARTMENT

17 CLASSROOM PRE SCHOOL

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02

PRAIRIE PARK Pavilion SPRING 2024

PROJECT OVERVIEW This semester, I had the privilege of participating in a design-build studio in Lawrence, Kansas, where we took on a transformative project for the Prairie Park Nature Center (PPNC). This 3,600-square-foot outdoor classroom and rental pavilion, set amid the sweeping prairie landscape, is designed to strengthen community bonds and provide a versatile space that celebrates nature.

The pavilion’s primary function is as an educational hub, offering children immersive learning experiences in ecology, prairie fires, and wildlife within an open-air setting that fosters direct connection to the natural environment. Beyond education, the space will serve as a venue for eco-friendly wedding ceremonies and other gatherings, accommodating up to 100 guests in a sustainably built structure that harmonizes with the surrounding prairie. This project not only enhances PPNC’s capacity to host a diverse array of events but also underscores our commitment to sustainable, community-centered design.

STUDIO TEAM Professor & Project Manager: Keith Van De Riet Alayna Thomas , Ashley Decker, Christopher Monarres, Emily Dulle, Emma Hamer, Madison Simons, Melia Whitney, Matthew Garrett, Naalkh DeAsis, Paige Butterfield, Sara Miranda, Sarah Montes, Wynn Bowden

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BOLT PLATE LAYOUTS

Beam plate & Column plate variations

20

INSPIRATION Without any doubt, this was the most difficult and intimidating part for me but at the same time the one that gave me the most adrenaline and pride in the project. I was in charge of creating the bottom connection that would support the bays structure.

First, I had to create with my partner Emma different variations of bolt layouts for the column plate and for the beam plates. This was a process that took us a long time because it had to work structurally and aesthetically.

We had to work with very imposing 7/8 and 3/4 bolts which made the layout even more complicated and the supporting tube in the middle of the plate. We decided to gain some space by implementing a stiffener plate at the top of the tube connected to the beam plate to gain some space.

After several variations I created a layout that was greatly accepted by everyone on the team and made me feel very proud of myself.

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KNEE BRACE CONNECTION Another challenge that my classmate and I were in charge to deal with was the different angles that we had to work with to connect the column plate to the beams connection supported by two steel tubes to hold the structure. We had to design and calculate each angle in different axis so the tubes land on the middle of the beam plates and have the corresponding distance from the beam plate to the column plate to carry the loads the most efficiently as possible and have a adequate structural connection.

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JIG At this point, it was unreal to me that we were creating a jig for a connection that I created. At the beginning, we really struggled with the different angles of the jig since everything had to be exact and we had to make it adjustable for our 2 knee brace angles of 25 and 27 degrees.

WELDING CONNECTION Once we had the jig, we had the opportunity to work with welding tools and put our jig into action to connect our column and beam plates to create the knee brace connection. It was the biggest jig that our class had to build.

It was massive and we were very proud of the jig itself and the outcome that it gave us for the knee brace connection.

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Knee Brace Bolts Installation This moment really made me feel very powerful and important in the project. It was a unique feeling to be able to install the knee brace connection since I was in every single step of the process for it. I would never had thought that I could use such a powerful tool. It really made me feel proud of our hard work into it with the people that we worked together for it.

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OPENING!

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Like everything in life, this project has to come to an end. I cannot describe how proud and happy I am for my peers and I for achieving such a massive and incredible project. I am very thankful because this project not only taught me many important aspects about the real work life but it reminded me why I wanted to be an architect in first place. Seeing the happiness in people’s face at the opening was priceless. It really showed me that we were doing an actual impact for this neighborhood and that really fulfilled my heart.

I also had the incredible luck to have such a wonderful group that really became a family for me at KU.

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03

L’ARTE Art Center Facility SPRING 2023

PROJECT OVERVIEW Kansas City has long been a creative hub for the entertainment industry. L’Arte Arts Center, located just south of the Kauffman Center, will be a gathering place for diverse activities within this vibrant district. Its goal is to foster connections and interactions among visitors in a space that celebrates creativity. Positioned between 17th and 18th streets, the building’s design includes two “hug spaces” on either side to enhance flow and eliminate the need for a back facade, creating outdoor areas for community engagement.

The building’s layout is divided into two wings: production (east) and consumption (west). This arrangement enables the staff and educational areas on the east side to remain focused, away from tourist distractions.

SOFTWARE USED • Revit • Sketchup • Enscape • Illustrator • Photoshop • CTL

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MASSING CONCEPT

Simple mass

In recent years, sustainability has become a vital focus in architecture, emphasizing the need for future architects to prioritize green building strategies. L’Arte exemplifies sustainable design, incorporating features such as a green roof that mitigates heat islands, reduces water runoff, and provides evaporative cooling.

Creating exterior spaces within the building

Expanding the story

Opening the views

AXONOMETRIC

Additionally, the building is equipped with a solar roof composed of photovoltaic panels, significantly reducing energy consumption and lowering both pollution and operational costs. Permeable pavement throughout the site supports water filtration, protecting the soil from urban pollutants. L’Arte sets a benchmark for sustainable architecture, serving as a model for future generations in green design.

PHYSICAL MODEL

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Making accessibility

Engaging the dynamic landscape

Offsetting footprint

Creating dynamic with building shape

SUSTAINANILITY DIAGRAMS

Permeable pavement Permeableinfiltration pavement in the allows of parking lot allowsinfiltration of air and water air & water

80°F

125°F

80°F

Mitigate heat island effect Mitigate heat island effect 125°F

Mitigate heat island effect

Water runoff reduction & storage

Water runoff reduction &

storage Water runoff reduction & storage

Many layers of rocks gradually scaled filter water flow before getting to the soil keeping contaminants away

Thermal mass during winter

Thermal mass during winter

Thermal mass during winter

Evaporative cooling

By integrating solar panels on By theintegrating buildingsolar we panels can on the building we can design for energy efficiency. design for energy efficiency. Solar panels use the sun Solar panels use the sun as our a renewable to offset our carbon footprint as a renewable resource to offset carbonresource footprint without releasing carbon dioxide into the atmosphere without releasing carbon dioxide into the atmosphere or using any water to produce energy for our or using any water to produce energy for the our communities making building eco friendly. communities making the building eco friendly.

Evaporative cooling

Evaporative cooling

Photovoltaics panels to save

Photovoltaics panels to save Photovoltaics more for the entire morepanels energy forenergy thesave entire buidling reducing cost and reducing cost and pollutionentire more energybuidling for the pollution building reducing costs & pollution

Different layers of rocks gradually scaled filter water flow keeping soil out of contaminants

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FLOOR PLANS A

ROOF

B

Archive Room

Offices ST. CUST.

Mechanical Room

B A

Work Room

UPPER FLOOR

A

Film Row Gallery Film Row Gallery

Show-AFilm VaultRama Gallery

Show-ARama Gallery

KC Gallery

KC Gallery

Lobby

Film Vault

Lobby Outdoor terrace Outdoor terrace

Theater

B

Theater

Learning Space Storage

Learning Space Gallery Storage Gallery

Review room Studio 2

Review room Studio 2 Studio 1

Studio 1

MAIN FLOOR

B MAIN FLOOR 0 ft

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0 ft

16 ft

32 ft

16 ft

64 ft

32 ft

64 ft

EXPLODED STRUCTURAL AXONOMETRIC

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StuS

PRIVATE SPACE PUBLIC SPACE

North Elevation

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0 ft

16 ft

32 ft

64 ft

Organizational Organizational driver: driver: main main hallway thathallway that connect wall the connect wall the community spaces community spaces in a wide space in a wide space Organizational Organizational Organizational driver: driver: main hallway that driver: main hallway that wall the main hallway that connect community spaces connect wall the connect wall the in a wide space community spaces community spaces Entertainement in a wide space Entertainement users in a wide space

Organizational driver: Organizational driver: main lobby working as main lobby working as a starting a starting point of the point of the building experience building experience

Organizational driver: Organizational driver: Organizational main lobby working asdriver: main lobby amain starting point of the lobby working as working as a starting point of the building experience

a starting point of the building experience building experience

users

Staff

Staff

udents Students

Organizational driver: Organizational driver: Organizational driver: mainoutside circulation mainoutside circulation mainoutside circulation connection both parts of connection the connection both parts of theboth parts of the project and outside activities project and outside activities project and outside activities

Organizational driver: Organizational driver: Organizational driver: learning space where learning space where learning space where people can gather, people can gather, work togethercan and gather, people work together and share. work together and share. share.

Organizational driver: Organizational driver: mainoutside circulation mainoutside circulation connection connection both parts ofboth the parts of the project and outside activities project and outside activities

Organizational driver: Organizational driver: learning learning space where space where people can gather, people can gather, work work together andtogether and share. share.

South Elevation

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SECTION AA

38

0 ft

16 ft

32 ft

64 ft

SECTION BB

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40

04

INHALA Regenerative Design Facility FALL 2023

PROJECT OVERVIEW Wichita is renowned for its commitment to enhancing urban design and strengthening community ties through art. Inhala Center, located downtown, is designed to further this mission by transforming discarded glass and ceramic materials into artistic creations and job opportunities for residents. The center not only promotes recycling and regenerative design but also aims to educate the community on sustainable practices.

Through workshops and learning programs, Inhala Center will actively engage locals, fostering both economic and artistic growth. It will bring increased activity and public interaction to downtown Wichita, serving as a hub for community engagement, positive social impact, and educational initiatives.

SOFTWARE USED • Revit • Sketchup • Enscape • Illustrator • Photoshop

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Open spaces play a crucial role in revitalizing crowded urban areas, offering respite from dense surroundings while fostering community interaction. Integrating vegetation into projects like the Inhala Center enhances not only the aesthetic appeal but also the environmental and social benefits of the space.

Greenery mitigates urban heat, improves air quality, and provides a sense of tranquility, making the area more inviting for visitors and residents alike. By incorporating lush vegetation and open areas, the Inhala Center can amplify its mission of community enrichment, creating an inclusive environment that harmoniously blends art, sustainability, and nature.

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SITE PLAN + GROUND FLOOR 1/16”= 1’’00

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CONCEPT DIAGRAMS

MASSING DIAGRAM

Site

Simple mass

Giving the site air to breath

Expanding the story

Creating accessibility

3 East Architectural Building Elevation 1/16" = 1'-0"

South Architectural Building Elevation 1/16" = 1'-0"

1. Localizing the site in space

2. Making honor to our surroundings

3. Creating movement, mass and openings

1

Creating dynamic

4. Integrating the nature into the building

MATERIALITY

Green Wall Facade

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Multilayered wooden facade

Double Layered Glazing

Mosaic Ceramic facade

Stucco facade

STRUCTURAL & CIRCULATION DIAGRAM

Exit Access Exits

1

1

2

2

3

3

4

4

5

5

6

6

A

A

Exit Discharge

B

B

C

C

D

D

E

E

F

F

G

G

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FLOOR PLANS

bedroom

TLT

TLT

bedroom

Exhibition Gallery bedroom DN UP

Living room

Exhibition Gallery

DN

DN UP

DN

DN

UP

UP

UP

Work Hall

TLT

LAB

Director's office

Office

Office

Office

Office

Office

TLT

DEPOT

LAB Kitchen UP

DN

UP

DN

TLT

UP

LEVEL 1 FLOOR PLAN 0ft 5ft

15ft

Conference rm

DN

Exchange Trainers rm UP

Storage admin

LEVEL 2 FLOOR PLAN

LEVEL 3 FLOOR PLAN 2

30ft

TLT

L3 FF 1/16" = 1'-0"

L2 FF 1/16" = 1'-0"

1

Demonstration

Work Yard

DN

DN

UP

DN

Work Hall

Roof Top TLT

Classroom

Storage

Classroom

TLT

Exchange

LAB

Mechanical equipment DN

UP DN

LEVEL 4 FLOOR PLAN 1

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L4 FF 1/16" = 1'-0"

ROOFTOP FLOOR PLAN 2

ROOFTOP 1/16" = 1'-0"

DN

EXHIBITION HALL

WORK HALL 1

WORK HALL 2

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DETAILED WALL SECTION Roof Top

Detail 3

95’0”

Roof

L4

80’0”

L3

60’0”

Detail 2

Cloud Wall

L2

40’0”

L1

20’0”

Detail 1

Foundation

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Ground Floor 0’0” 0ft

5ft

10ft

15ft

Detail 3

1 2 3 4 5 6 7

11 12 13 14 15 16

8 9 10

Detail 2

1 2 3 4 5 6 7 8 9 10 11

1. Parapet cap Flashing 2. Concrete exterior wythe 3. Rigid insulation layer with vapor barrier 4. Concrete interior wythe 5. Housewrap 6. Exteriro wall covering 7. Threaded rod with sub girt system 8. Counter Flashing 9. Metal flange 10. Cant Strip 11. Plaza deck pavers 12. Aggregate drainage layer 13. Roofing membrane (waterproofing) 14. Rigid insulation layor 15. Vapor Barrier 16. 9” basic roof

1. 10” Floor Concrete Slab 2. Stainless Steel “C” Channel 3. Open Web Steel Joists 4. Air Duct system 10” 5. Rigid Insulation with Vapor Barrier 6. Cable Tray 7. Water sprinklers conductors 8. Diffuser 9. Drop Out Ceiling Tiles 10. sprinkler system 11. Room Lightning 12. Sub Girt 13. Metal Trim 14. Threaded rods for screening 15. Stainless steel cloud wall fin assembly 16. “Boomerang” cross bracing 17. Panelized dry set glass system 18. 4’ tall hand railing

12 13 14 15 16 17 18

Detail 1

FOUNDATION WALL SECTION 1/2”=1’

10 11 12 13

1. Structural Glass door 15’ tall 2. Steel column with recessed base plate 3. Stainless steel metal flange flashing 4. Exterior concrete slab 5. Gravel 6. Concrete foundation wall 4’ tall 7. Drainage Pipe 8. Cast in Place Foundation footing 1’6” tall 9. Compacted earth 10. 12” floor finish 11. 12’ reinforced concrete slab 12. Extruded polystyrenne insulation 13. Layer of gravel

1 2 3 4 5 6 7 8 9

0ft

5ft

10ft

49

15ft

BUILDING SECTIONS & HVAC SYSTEMS

SECTION AA + HVAC System 0ft

50

5ft

15ft

30ft

ROOF TOP 95’0”

L4 80’0”

L3 60’0”

L2 40’0”

L1 20’0”

Ground Floor

SECTION BB + HVAC System

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05

CHAKRAS Pavilion FALL 2023

PROJECT OVERVIEW This project involved designing a folly on the southeast edge of the University of Kansas campus, driven more by artistic than pragmatic purpose. Inspired by the concept of the seven chakras—energy centers that influence mental and physical well-being—the design creates a path of healing through movement. Each section represents a chakra, featuring activities that focus on specific areas of health.

The folly offers a unique space where students can release stress and reconnect with their well-being, fostering freedom, creativity, and self-care amidst academic demands.

SOFTWARE USED • Sketchup • Enscape • Illustrator • Photoshop

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CHAKRAS

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This project resonated deeply with me, aligning with the experiences that have shaped who I am. Architecture, at its core, has the potential to evoke emotions and even contribute to healing—a truth we often overlook.

The Chakras project illuminated for me how design influences our emotional, spiritual, and physical well-being. Through this project, I understood that architecture, like the seven chakras, holds the power to balance and uplift, creating spaces that connect us to ourselves and foster true harmony.

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06

PERSONAL WORK

PROJECT OVERVIEW From a young age, art has been my sanctuary—whether through watercolors, doodles, or oil paintings. Over time, this form of expression became my deepest passion, leading me down the path to architecture. Through my designs, I channel my story, merging creativity and purpose into spaces that resonate with meaning and connection. Architecture, for me, is not just building; it’s a language that speaks to the soul, inspired by the same artistic spirit that first fueled my journey.

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Since I was little, art and sketching have been my refuge—a way to escape, process life’s challenges, and capture the memories and places that have shaped me. Through doodles, watercolors, and paintings, I found comfort, control, and a way to preserve moments I didn’t want to forget. Over time, this passion grew into a love for architecture, where I now use design to tell my story, celebrate my experiences, and honor the journey that continues to inspire me.

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Lawrence Public Library April, 2024

Santino’s August, 2023

Austin Capitol

July, 2024

San Francisco Church January, 2024

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THANK YOU.

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