Kevin Medina University at Buffalo Undergraduate Portfolio
Architecture
Design Design
Portfolio
kevin.jomedina@gmail.com
The Culinary
Institute
Senior Design Studio Mixed Use / Culinary School Fall 2019 The Culinary Institute is a mixed use housing complex, as well as a culinary school for young adults. Located in Forrest Hills, Queens. The institute gives an opportunity for young adults to start their academic and professional careers in the Culinary Arts. This mixed use housing complex has 29 units varying from single studio units to 6 bedroom tower units. The first two stories of commercial space contain restaurants, giving students the opportunity to utilize their skills and gain experience in their desired field of study. This culinary institute is the start to their up and coming careers as young professionals. My responsibility in this design project involved the development of digital and physical models, floor plans, renders, and photography. I collaboratively worked on conceptual ideas with my partner to create an urban hub for educational and career oriented success.
Site axon showing local commercial spaces (restaurants) located in the area.
Professor: Ozay Erkin Design Team: Kevin Medina, Sheikh Hossain
Culinary Institute Residential Commercial
1/32” scale site model.
Program diagram showing the Culinary Institute, Residential Units, and Commercial Spaces.
Continental Ave.
70th Rd.
Single Unit
Double Unit
Ground Floor Plan
Continental Ave.
70th Rd.
Fourth Floor Plan
Triple Unit
Tower Unit
A view of the public Library (Learning Space) and entrance into the Culinary Institute.
Commercial spaces service student workers, aiding in work experience.
Rendered view of the mixed use, Culinary Institute from Austin St.
Section Perspective (Sheikh Hossain)
Spline Junior Design Studio Boat
A
Fall 2018 Located in Gallagher Beach, Buffalo, NY, a competition was held amongst each team to design, build and race a functional boat. My team, Spline is a boat that models the anatomy of a whale and tuna carcass. Using the carcass as a structural model allowed for an optimized design development of this boat. The design challenge was to investigate what defines skin and structure, which resulted in the final design. Having its design closely related to fish anatomy, it optimizes this visual aesthetic, highlighting its natural qualities of strength, durability, and structural organization. The responsibility I was tasked with in this project was to assist in the research, design, and construction of this boat. My responsibilities included precedent research, fabrication, and photography. Through group effort, we were able to showcase a unique design reflects fish and human anatomy. Professor: Chris Romano Design Team: Adara Zullo, Michaela Senay, Carlos Cuadrado, Dylan Russ, Kevin Medina, Michaela Senay, Nicholas Hills, Rob Sully
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B B
C
C D E F G H
D Diagram showing the physical and conceptual connections to bone structure of a human and tuna fish.
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F
G
H
Aesthetic qualities of skin and structure relationship, while responding to fish anatomy as a precedent.
Sections of Spline taken at various points of the boat.
Exploded axon showing structural components.
Nest Junior Design Studio Wooden Vessel Fall 2018 Nest is a floating fish restaurant located in Lockport Canal, Buffalo, NY. The restaurant is sited in the water to house fish for the occupants to catch their own meals. The program of this wooden vessel exemplifies the anatomy of a Tuna, following the narrative of spacial organization. Occupants would enter at the tail, catch their meal in the belly, and feast at the head or final end of the structure. In conjunction, the anatomy of the Tuna creates an inherent structural precedent, giving Nest an ideal form. In this project, my responsibility involved the development of hand sketches, digital and physical models, plans, sections, and photographs. Using the anatomy of a Tuna as a precedent, allowed my partner and I to create conceptual design ideas that give this project a clear narrative for its functional and aesthetic use. Professor: Chris Romano Design Team: Kevin Medina, Xing Lin
Final review Regatta at Gallagher Beach in Buffalo,NY.
Model showing lighting conditions within wooden vessel, revealing a captivating image of reflectivity.
100% OXYGEN
FRAME
First sketch of liquid and air buoyancy.
70% OXYGEN 30% FRESHWATER DEAD FISH
50% OXYGEN 40% FRESHWATER 10% SYRUP
Second sketch of how individuals occupy the structure.
Section perspective of first initial design.
Section perspective of final design.
First study model incorporating sketches. (Contains water, syrup, oil, and air)
Final design. (Contains wood, balloons, water, air, cable ties, rope, metal rod, and mesh)
Third sketch with refined idea of buoyancy, structure, and inhabitation.
Final sketch of ideal section of final model.
PRODUCED BY AN AUTODESK STUDENT VERSION
Fish Head
Exterior Dining
FISH’s Head Exterior Dining Space/Kitchen
1050 Sq. Ft.
STATIC HINGES Party Space
Large Fish Breeding Space Party Space 550 Sq. Ft.
Fish Belly
PRODUCED BY AN AUTODESK STUDENT VERSION
PRODUCED BY AN AUTODESK STUDENT VERSION
Shop
Indoor Fishing Space
Shop 2050 Sq. Ft.
Office
Storage Restroom Office 2050 Sq. Ft.
Gallery
Storage 320 Sq. Ft.
HINGES STATIC Restroom 160 Sq. Ft.
Fish’s Spline
Gallery 2050 Sq. Ft.
PRODUCED BY AN AUTODESK STUDENT VERSION
Parking Lot
Fish Tail & Entrance
0’
Demonstration of spatial transitions; along with a program drawing to the right.
0’
16’
32’
48’
16’
32’
Plan drawing of the wooden vessel with fish farm.
48’
Large Fish Breeding Space
Atlantic Salmon
Section Perspective (Kevin Medina)
Temp: 10 Degrees Celsius (50 Degrees Fahrenheit) Size: About 30 In Life Span: 2 - 3 Years
Brown Trout
Temp: 20 Degrees Celsius (68 Degrees Fahrenheit) Size: About 30 In Life Span: 5 - 10 Years
Carp
Temp: 30 Degrees Celsius (86 Degrees Fahrenheit) Size: About: 20 In Life Span: 15 - 20 Years
Yellow Perch
Temp: 10 Degrees Celsius (50 Degrees Fahrenheit) Size: About 6 In Life Span: 5 - 7 Years
Conibear Shellhouse Construction Technology Spring 2019 In the Construction Technology course, I was assigned to study various built works, with this one being the Conibear Shellhouse by Miller Hull, located in Seattle, Washington. Students were asked to read through multiple construction document sets and create an axonometric drawing, replicating a particular section of the building to scale. Professor: Annette Lecuyer Drafter: Kevin Medina
Specifications Specifications 1 Foundation 1 Foundation Specifications 14” Diameter Diameter Steel Steel Pile Pile with with poured poured in in place place concrete concrete Foundation Specifications 1 14” 6-1/2” Structural Slab 6-1/2” Structural Slab Specifications Foundation 1 14” Diameter Steel Pile with poured in place concrete 6-1/2” Structural Slab Floor Assembly 2 Specifications Ground FloorSteel Assembly Foundation 2 Ground 14” Diameter Pile with poured in place concrete 1 Specifications 6-1/2” Structural Slab with Mesh Reinforcement Foundation 1 6-1/2” Structural Slab with Mesh Reinforcement Ground Floor Assembly 14” Diameter Steel Pile with poured in place concrete 2 Specifications 1” Rigid Insulation 1” Rigid Insulation 6-1/2” Structural Slab Foundation 1 14” Diameter Steel Pile with poured in place concrete 2 1 2 1 2 2 3 3 2 2 3 3 3 3 3 4 4 3 3 4 4 4 4 4 5 5 4 4 5 5 5 5 5 5 5 6 6 6 6 6 6 6 6 7 67 7 7 7 7 7 8 8 7 7 8 8 8 8 8 8 8
View of building exterior.
Ground Floor Assembly 6-1/2” Structural Slab with Mesh Reinforcement 2-1/2” Concrete Topping 2-1/2” Concrete Slab Topping Slab Slab 6-1/2” Structural Foundation 1” Rigid Insulation 14” Diameter Steel Pile with poured in place concrete 6-1/2” Structural Slab with Mesh Reinforcement Ground Floor Assembly Acrylic Self-Leveling Product Foundation Acrylic Self-Leveling Product 6-1/2” Structural Slab 2-1/2” Concrete Topping Slab 14” Diameter Steel Pile with poured in place concrete 1” Rigid Insulation Ground Floor Assembly New Floor Finish Material 6-1/2” Structural Slab with Mesh Reinforcement NewDiameter Floor Finish Material 14” Steel Pile with poured in place concrete 6-1/2” Slab AcrylicStructural Self-Leveling Product 2-1/2” Concrete Topping Slab 1” RigidStructural Insulation Ground Floor Assembly 6-1/2” Structural Slab with Mesh Reinforcement 6-1/2” Slab New Floor Finish Material Wall Assembly Acrylic Self-Leveling Product Wall Assembly 2-1/2” Concrete Topping Slab 1” RigidStructural Insulation Ground Floor Assembly 6-1/2” Slab with Mesh Reinforcement New Floor Finish Material Ground Floor Assembly 10” Sealed Concrete Wall Acrylic Self-Leveling Product 2-1/2” Concrete Topping 10” Sealed Concrete WallSlab Wall Assembly 1” Rigid Insulation
6-1/2” Structural Slab with Mesh Reinforcement 1/2” Air Space New Floor Finish Material 1/2” Air Space Acrylic Self-Leveling Product 6-1/2” Structural Slab with Mesh Reinforcement 2-1/2” Concrete Topping 1” Insulation Wall Assembly 10”Rigid Sealed Concrete WallSlab 3-5/8” Metal Studs 3-5/8” Metal Studs New Floor Finish Material 1” Rigid Insulation 2-1/2” Concrete Topping Slab Acrylic Self-Leveling Product 1/2” Air Space Wall Assembly 10” Sealed Concrete WallSlab R-13 Batt Insulation R-13 Batt Insulation 2-1/2” Concrete Topping New Floor Finish Material 3-5/8” Metal Studs Acrylic Self-Leveling Product 1/2” Air Space 5/8” Gypsum Wallboard with Wall Assembly 5/8” Gypsum Wallboard with Vapor Vapor Retarding Retarding Primer Primer at at Interior Interior 10” Sealed Concrete Wall Acrylic Self-Leveling Product New Batt Floor Finish Material R-13 Insulation 3-5/8” Metal Studs 1/2” Air Space Wall Assembly 10” Sealed Concrete Wall New Floor Finish Material 5/8” Gypsum Wallboard with Vapor Retarding Primer at Interior Window Assembly R-13 Batt Insulation Window Assembly 3-5/8” Metal Studs 1/2” Air Space Wall Assembly 10” Sealed Concrete Wall 5/8” Gypsum Wallboard with Vapor Retarding Primer at Interior 9” x 3” Sill R-13 Batt Insulation Wall Assembly 3-5/8” Studs 9” 3” Sill Window Assembly 1/2” AirMetal Space 10”x Sealed Concrete Wall Aluminum Window 5/8” Gypsum Wallboard with Vapor Retarding Primer at Interior R-13 Batt Insulation Aluminum Window 3-5/8” Metal Studs 10”x Sealed Concrete Wall 1/2” Air Space Window Assembly 9” 3” Sill Backer Rod & Sealant Backer Rod & Sealant 5/8” Gypsum Wallboard with Vapor Retarding Primer at Interior 1/2” Air Space R-13 Batt Insulation 3-5/8” Metal Studs Aluminum Window Window Assembly 9” x 3” Metal Sill Sloped Sill Sloped SillInsulation 3-5/8” Studs 5/8” Gypsum Wallboard with Vapor Retarding Primer at Interior R-13 Batt Backer RodWindow & at Sealant Aluminum 1/2” Chamfer Corner Window Assembly 1/2” Chamfer at Concrete Concrete Corner 9” x 3” Sill R-13 Batt Insulation 5/8” Gypsum Wallboard with Vapor Retarding Primer at Interior Sloped Sill Backer RodWindow & Sealant Aluminum Window 5/8” Gypsum Wallboard with Vapor Retarding Primer at Interior 9” x 3” Sill Assembly 1/2” Chamfer at Concrete Corner Sloped Sill Deck Assembly Deck BackerAssembly RodWindow & Sealant Aluminum Window 9” x 3” Sill Assembly 1/2” Chamfer at Concrete Corner Sloped Sill Window Assembly Existing Steel Backer Rod &Structure Sealant -- W16 Existing Steel Structure W16 Beams Beams & & W10 W10 xx 39 39 Pylons Pylons Deck Aluminum Window 9” x 3” Assembly Sill 1/2” Chamfer at Concrete Corner Sloped Sill 2” Composite Metal Decking Corrugated Metal 2” Composite Metal Decking Corrugated Metal Backer Rod & Sealant 9” x 3” Sill Aluminum Window Deck Assembly Existing Steel Structure W16 Beams & W10 x 39 Pylons 1/2” Chamfer Concrete Corner 2-1/2” Concrete Topping Slab Aluminum 2-1/2” Concrete Topping Slab Sloped Sill Window Backer Rod & at Sealant 2” Composite Metal Decking - Corrugated Metal Deck Assembly Existing Steel Structure W16 Beams & W10 x 39 Pylons Hot Membrane Backer Rod Hot Rubberized Rubberized Asphalt Membrane 1/2” Chamfer atAsphalt Concrete Corner Sloped Sill & Sealant 2-1/2” Concrete Topping Slab- Corrugated Metal 2” Composite Metal Decking Deck Assembly Protection Sheet Sloped Sill Existing Steel Structure - W16Corner Beams & W10 x 39 Pylons Protection Sheet 1/2” Chamfer atAsphalt Concrete Hot Rubberized Membrane 2-1/2” Concrete Topping Slab Drainage Composite 1/2” Chamfer at Concrete Corner Deck Assembly 2” Composite Metal Decking - Corrugated Drainage Composite Existing Steel Structure - W16 Beams & W10 xMetal 39 Pylons Protection Sheet Hot Rubberized Asphalt Membrane 1” Insulation 2-1/2” Concrete Topping Slab Deck Assembly 1” Rigid Rigid Insulation 2” Composite Metal Decking Corrugated Metal Existing Steel Structure W16 Beams & W10 x 39 Pylons Drainage Composite Protection Sheet 2” Topping Slab with Broom Finish Deck Assembly 2” Topping Slab with Broom Finish Hot Rubberized Asphalt Membrane 2-1/2” Concrete Topping Slab 2” Composite Metal Decking Corrugated Metal Existing Steel Structure W16 Beams & W10 x 39 Pylons 1” Rigid Insulation Drainage Composite Protection Sheet HotTopping Rubberized Asphalt Membrane Existing Steel Structure - W16 Beams & W10 xMetal 39 Pylons 2-1/2” Concrete Topping Slab 2” Slab with Broom Finish 2” Composite Metal Decking - Corrugated 1” Rigid Insulation Railing Assembly Railing Assembly Drainage Composite Protection Sheet 2” Composite Metal Decking HotTopping Rubberized Asphalt 2-1/2” Concrete Topping Slab- Corrugated Metal 2” Slab with BroomMembrane Finish 1” Rigid Insulation Drainage Composite 13 xx Rubberized 31.8 Galvanized Steel C-Channel 2-1/2” Concrete Topping Slab 13 31.8 Galvanized Steel C-Channel Protection SheetAsphalt Railing Assembly Hot Membrane 2” Topping Slab with Broom Finish 1/2” x 4” Galvanized Flat Bar 1” Rigid Insulation Hot Rubberized Asphalt 1/2” x 4” Galvanized FlatMembrane Bar Drainage Composite Protection Sheet Railing Assembly 13 x 31.8 Galvanized SteelFlat C-Channel 1/4” xx 5-1/2” Galvanized Bar 2” Slab with Broom Finish 1/4” 5-1/2” Galvanized Flat Bar Cable Cable Support Support Protection Sheet 1” Topping Rigid Insulation Drainage Composite 1/2” xDiameter 4”Assembly Galvanized Flat Bar Railing 13 x 31.8 Galvanized Steel C-Channel 1/2” Stainless Steel Solid Stiffener 1/2” Diameter Stainless Steel Solid Stiffener Rod Rod Drainage Composite 2” Topping Slab with Broom Finish 1” Rigid Insulation 1/4” x 5-1/2” Galvanized Flat Bar Cable Support 1/2” x Diameter 4”Assembly Galvanized FlatSteel Bar 3/16” Stainless Cables Railing 3/16” Diameter Stainless Steel Cables at at 3” 3” O.C. O.C. 1” Rigid Insulation 13 x 31.8 Galvanized Steel C-Channel 2” Topping Slab with Broom Finish 1/2” Stainless Steel Solid Stiffener Rod 1/4” xDiameter 5-1/2” Galvanized BarTop Cable 3/4” 6” Galvanized Steel Plate Rail 2” Topping Slab with Broom Finish 3/4” 6”Assembly SteelFlat Plate Top RailSupport 1/2” x Diameter 4” Galvanized Flat Bar Railing 13 x 31.8 Galvanized Steel C-Channel 3/16” Stainless Steel Cables at 3” O.C. 1/2” xDiameter Stainless Steel Solid Stiffener Rod 1/4” Galvanized Flat Bar Cable Support 1/2” xx 5-1/2” 4” Galvanized Flat Bar Railing 3/4” 6”Assembly Galvanized Steel Plate Top Rail 13 x 31.8 C-Channel 3/16” Diameter Stainless Steel Cables at 3” O.C. Railing Assembly 2 2 Steel 1/2” xDiameter Stainless Solid Stiffener Rod Railing Assembly 1/4” Galvanized Bar Cable Support 1/2” xx 5-1/2” 4” Flat Flat Bar 13 x 31.8 Steel C-Channel 3/4” 6” Galvanized Plate Top Rail 3/16” Diameter Stainless Steel Cables at 3” O.C. 10” Concrete Upstand 1/2” Diameter Stainless Steel Solid Stiffener Rod 10”xConcrete Upstand Railing Assembly 2 Steel 1/4” 5-1/2” Galvanized Bar Cable Support 13 31.8 Galvanized C-Channel 1/2” x 4” Flat Flat Bar 3/4” xDiameter x Diameter 6”Steel Galvanized Steel Plate Top Rail Painted Steel Column 3/16” Stainless Steel Cables at 3” O.C. Painted Column 1/2” 4” Galvanized Flat Bar Stainless Steel Stiffener Rod 1/4” 5-1/2” Galvanized Flat Solid Bar Cable Support Railing Assembly 2 Bar 10” Painted xxUpstand 3” Flat 3/4”Concrete x Diameter 6”1/2” Galvanized Plate Top Rail Painted 1/2” 3”Stainless Flat Steel Bar 1/4” 5-1/2” Galvanized Flat Bar Cable Support 3/16” Steel Cables at 3” O.C. 1/2” Diameter Stainless Steel Solid Stiffener Rod Painted Steel Column Railing Assembly 2 Steel 10”xx Concrete Upstand 6” Angle 6” 6” Angle 1/2” Diameter Stainless Steel Solid Stiffener 3/4” 6” x Diameter 6” Galvanized Plate Top Rail 3/16” Stainless Steel Cables at 3” Rod O.C. Painted 1/2” x 3” Flat Bar Painted Steel Column 3/4” xx Diameter 6”Assembly Galvanized Plate Top Rail Railing 2 Steel 3/4” Galvanized Steel Plate Top 3/16” Stainless Steel Cables at 3” O.C. 10”x Concrete Upstand 3/4” x 6” 6” Galvanized Steel Plate Top Rail Rail 6” 6” Angle Painted 1/2” x 3” Flat Bar Painted Steel Column 3/4” 6”Assembly Galvanized Steel Plate Plate Top Top Rail Rail Railing 2 Steel 10” Concrete Upstand 3/4” xx Assembly 6” Galvanized 6” x 6” Angle Roof Painted 1/2” 3” Flat Roof Assembly Painted SteelxColumn Railing Assembly 2 Bar 10” Concrete Upstand 3/4” x 6” Galvanized Steel Plate Top Rail 6” x 6” Angle Railing Assembly 2W16 Painted 1/2” 3” Flat Bar xx 36 SteelxColumn Purlins Purlins W16 36 Pylons Pylons Painted Steel Roof Assembly 10” Concrete Upstand 3/4” x 6” Galvanized Steel Plate Top Rail 6” x 6” Angle 2x6 Pressure Treated Wood Nailer 2x6 Pressure Treated Wood Nailer 1/2” x 3” Flat Bar 10” Concrete Upstand Painted Steel Column Roof Assembly Painted Steel Purlins W16 x 36 Pylons Tongue & Groove Wood Decking 3/4” x 6” Galvanized Steel Plate Top Rail Tongue & Groove Wood Decking Painted Steel Column 6” x 6” Angle 1/2”Treated x 3” FlatWood Bar Nailer 2x6 Pressure Roof Assembly Painted Steel 36 Pylons 1/2” Plywood Sheathing Painted 1/2” xPurlins 3” FlatW16 Bar x Plate 1/2” Plywood Sheathing 3/4” x 6” Galvanized Steel Top Rail 6” x 6” Angle Tongue & Groove Wood Decking 2x6 Pressure Treated Wood Nailer 6” R-21 High-Performance Rigid Insulation Roof Assembly 6” xThick 6” Angle Thick R-21 High-Performance Rigid Insulation Painted Steel Purlins W16 36 Pylons 3/4” xPlywood 6” Galvanized Steelx Plate Top Rail 1/2” Sheathing Tongue Groove Wood 1/4” Board 3/4” xOverlay 6”& Galvanized SteelDecking Top Rail 1/4”Pressure Overlay Board 2x6 Treated Wood Nailer Roof Assembly Painted Steel Purlins W16 x Plate 36 Pylons 6” Thick R-21 High-Performance Rigid Insulation 1/2” Plywood Sheathing Tongue & Groove Wood Decking PVC Single Ply Membrane 2x6 Pressure Treated Wood Nailer Roof Assembly PVC Single Ply Membrane 1/4” Overlay Board Painted Steel Purlins W16 x 36 Pylons 6” Thick R-21 High-Performance Rigid Insulation 1/2” Plywood Sheathing Roof Assembly Fascia Tongue & Groove Wood Decking Fascia 2x6 Pressure Treated Wood Nailer Painted Steel Purlins W16 x 36 Pylons PVC Single Ply Membrane 1/4” Overlay Board 6” Thick R-21 High-Performance Rigid Insulation Metal Flashing 1/2” Plywood Sheathing Metal Flashing Tongue & Groove Wood Decking Painted Steel Purlins W16 x 36 Pylons 2x6 Pressure Treated Wood Nailer Fascia PVC Single Ply Membrane 1/4” Overlay Board 6” Thick R-21 High-Performance Rigid Insulation 2x6 Pressure Treated Wood Nailer 1/2” Plywood Sheathing Tongue & Groove Wood Decking Metal Flashing Fascia 1/4” Overlay Board PVC Single Ply Membrane Tongue & Groove Wood Decking 6” Thick R-21 High-Performance Rigid Insulation 1/2” Plywood Sheathing Metal FlashingSheathing Fascia 1/2” Plywood PVC Single PlyHigh-Performance Membrane 1/4” Overlay Board 6” Thick R-21 Rigid Insulation Metal Flashing 6” Thick R-21 Rigid Insulation Fascia 1/4” Overlay Board PVC Single PlyHigh-Performance Membrane 1/4” Overlay Metal Flashing Fascia PVC Single PlyBoard Membrane PVC Ply Membrane MetalSingle Flashing Fascia Fascia Metal Flashing Metal Flashing
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Detailed section of the Conibear Shellhouse, in axonometric view.
Guaranty Building Academic Research Building Restoration Fall 2019 Academic research is based on restorations of the Guaranty Building, located in Buffalo, NY. Research investigates the Terra-Cotta tile facade, including construction methods. Adjunct professor and architect Ludovico Centis, Banham recipient, teaches the methods in which Reyner Banham, renowned architect critic, investigates a buildings material make up and theoretical narrative. Professor: Ludovico Centis Researcher: Kevin Medina
Terra Cotta tiles replicated in 2D drawing.
Cornice detail of the Guaranty Building. Source: Sarah Carroll (Boston Valley Terra Cotta)
Negative Terra Cotta mold. Some require sculpting after mold finish due to complexity of detailing. Source: Sarah Carroll (Boston Valley Terra Cotta)
Detail of cornice restoration with “J Hook” tieing back Terra Cotta tile to the steel I beam. Source: Sargent, Jon. The Guaranty Building: A Study in Terra Cotta Restoration, March 10, 2013.
Negative and positive molds of Guaranty Building emblem. Source: Sarah Carroll (Boston Valley Terra Cotta)
Vitality Freshman Design Studio Warming Pavilion Spring 2017 Vitality is a warming pavilion that is located in Silo City, Buffalo, NY. It is a three wall structure consisting of wooden dowels, wedges, and studs, with various view ports that filtrate light, and wind. It has three focus views on existing structures, grain silos, and a tree at the center of the site, which acts as the main focal point. Using the tree as the main focus creates a narrative for revival and re-purposing of the site. This aims to give the surrounding environment continuous life and energy. The responsibility I had within this project was to assist in the conceptual, technical drawing, and construction aspects. My responsibilities consisted of a hand rendering, rhino modeling, plan drawing, photography, assistance to fabrication and construction completion. Through team collaboration, we were able to build a project that, will evoke the narrative for revival and re-purposing, and give the site a greater meaning.
Front view of the first study model revealing a sense of visual filtration as well as contrasting colors.
Teaching Assistant: Randy Fernando Design Team: Brendan Cross, Brian Baek, Jacob Barkan, James Renda, Kaetlyn Hanlin, Kaleigh Scroger, Kevin Medina, Louie Miscioscia, Martin Vargas, Qiting Xie, Rachel Hernandez
Detail view of the wooden structure, showing the difference in color.
Front view of final study model showing visual filtration.
Difference of seasons, revealing the pavillions adaptability over time. (Martin Vargas)
Hand rendering of final model showing light filtration. (Kevin)
Three foot excavation with use of a post hole digging bar. (Left: Brian, Right: Louie)
Further excavation with use of a shovel and digging bar. (Front: Kaleigh, Back Right: Qiting)
Full scale detail model of the wedge connection.
Rendered view of what the occupant would see once inside the pavilion. (Louie)
Detail connection of the foundation.
Realistic view of what occupants see when inside the pavilion.
Use of a metal hammer to help the break down large pieces of rock. (Front: Kevin)
Final Review. (Left to Right: Randy, Louie, Rachel, James, Brian, Kaetlyn, Kevin, Jacob, Kaleigh, Qiting, Brendan, Martin)
Render (Louie Miscioscia)