NICHOLAS RUBINO - SELECTED WORKS
NICHOL A S RUBINO Jefferson University College of Architecture & The Built Environment SELECTED WORKS - 2024
nrubino22@gmail.com 610.999.9747
RESUMÉ
p.1 - Resumé
EDUCATION
EXPERIENCE
Thomas Jefferson University - Philadelphia, PA College of Architecture & The Built Environment
DesignUA
Bachelor of Architecture; NAAB Accredited Program Minor: Construction Management Graduation: May, 2024 GPA: 3.91
Designer, August 2023 - Present Support the Retail Planning & Design Team in various store design projects including: current & future prototype building designs, remodels, refreshes, and store roll out programs Develop company CAD standards & CD production templates Draft and coordinate the preparation of advanced multi-discipline drawing sets as required for assigned projects
CoreStates Group Architecture Retail & Convenience Intern, May 2022 – August 2023
SKILLS - AutoCad - Revit - Rhino - Grasshopper - Revu Bluebeam - ComCheck - VRay - Lumion - Enscape - Photoshop - Illustrator - InDesign - AfterEffects - ArcMap GIS - Procore - Model Making
LEADERSHIP + ACTIVITIES Alpha Lambda Delta Honors Society, President National Society of Leadership & Success, Member AIAS, Member Habitat for Humanity, Member Students for Historic Preservation, Member Student Organization for Sustainable Action, Member
Conducted due diligence reports and building code analysis by reviewing local, state, & federal codes. Assisted in drafting permit sets, construction sets & addendums under the guidance of senior staff.
CCA Architects Architectural Design Intern, January 2022 – April 2022 Worked extensively with digital modeling in Revit. Assisted in the development of design concepts for a variety of residential projects during the schematic phase. Drafted design development drawings for clients.
INTECH Construction Construction Management Intern, May 2021 - November 2021 Aided project management team on a multi-faceted commercial complex including: 20-story pharmaceutical headquarters, 127-room hotel, public plaza, two restaurants, and 1,500-space parking garage. Daily tasks included: Submittal review, Punchlist assignment/review, OAC and Subcontractor meeting minutes, MEP coordination, Subcontractor/Manufacturer correspondence, on-site subcontractor coordination, scheduling, bulletin/addendum distribution, and contract/construction document review.
D.P. Fuss Builders, Inc. General Contracting Laborer, May 2016 - August 2020 Routinely visited project sites, worked with varying crews for rough and finish carpentry, drywalling, selective demolition, interior/exterior paint, excavation, and concrete/masonry.
HONORS + AWARDS Dean’s List: Spring 2019 - Present Jefferson University Urban Equity Competition, Finalist Alpha Lambda Delta Honors
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INDEX
p.3 - Index
01
BLANTYRE CARDIOTHURASTIC
05
02
GROVE DANCE PAVILION
19
03
SCHOLARLY STRIDES STUDIO
31
04
FILTERING MUMBAI
39
Design IX | Fall 2023
Design VII | Spring 2023
Design VI | Spring 2022
Design VI | Spring 2022
p. 4
01
BLANTYRE CARDIOTHURASTIC Design IX | Fall 2023 | Prof. Chris Harnish Hearts for Mission International (H4MI), a newly established ministry of Adventist-Laymen’s Services and Industries, initiated a remarkable journey on November 1, 2023. This endeavor holds the potential to transform the lives of numerous individuals in sub-Saharan Africa. At Blantyre Adventist Hospital, H4MI achieved a significant milestone by successfully conducting the first-ever open-heart surgery in the country of Malawi. In 2001, cardiovascular diseases such as hypertension, stroke, cardiomyopathy, and rheumatic valve disease accounted for 9% of all deaths in Africa. To effectively plan for future health services, it is essential to enhance our comprehension of the present health profile, encompassing the range of cardiac diseases among adults in Malawi. The strategic healthcare architecture implemented in Malawi demonstrates potential for advancing patient recovery by incorporating sustainable design principles, strategically phased building infrastructure, and the promotion of community-centered healthcare facilities. The goal for this project is to open a regional heart center in Blantyre, Malawi to educate and provide the proper heart care that can be used as the template for other heart centers throughout the country.
p.5 - Blantyre Cardiothurastic
Degree of Privacy / Prayer Space
p. 6
DESIGN FRAMEWORK The primary design objective is to establish a comfortable and tranquil environment that facilitates recovery and ease for patients, staff, and visitors alike. To realize this vision, the campus adopts an internal courtyard layout supplemented by private healing spaces - recognized for their positive impact on overall health. This approach underscores a commitment to the patient and their road to recovery while providing functional healthcare infrastructure to all stakeholders. Achieving the design goal is feasible through careful planning and implementation of various design elements. The internal courtyard layout is designed to maximize natural light, greenery, and open space. Private healing spaces are strategically placed to provide a sense of privacy and tranquility. Incorporating elements such as comfortable seating, calming color schemes, and nature-inspired aesthetics contribute to the overall atmosphere and further support the desired environment.
p.7 - Blantyre Cardiothurastic
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Regular assessments and feedback from patients, staff, and visitors can guide ongoing adjustments to ensure the space continues to meet their needs effectively. Collaborative efforts between stakeholders are essential to align the physical design with the intended goals and adapt it over time as necessary.
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Views & Artwork Connection to outdoor spaces Healing visuals & vistas create supportive environments Engages patients & staff
Social Interaction Optimizes settings Common spaces for social interaction Public, Private, & Semi-private spaces Patients choose sociality
Natural Daylight Minimize energy used for lighting Orientation & Optimization of building Program requiring high illumination
Ventilation Minimize energy for heating/cooling Changes throughout day Changes throughout year Passive heating & cooling Window placement: high vs low
Flow Easy navigability within building/on site Clear main orientation direction Levels of clarity and transparency
p. 8
Patient Recovery
Rehab
Surgical Services
Prayer Space
Education
Administration
Site Boundary
Emergency
Staff
Patient/Visitor
Site Plan
p.9 - Blantyre Cardiothurastic
Service
10
10 3
11
9
9
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3
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12 7
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1 19
3 15
4
14 5 3 3
4
15
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15
15
15
15
15
15
3 18
1 HDU
4 Storage/JC
2 Nurse Station 5 Circulation 3 Bathroom
7 Sec. Entrance 10 Rec. Space
13 Conf. Lobby
16 Conf. Room
8 Gen. Rec.
14 Conf. Space
17 Admin Entr.
6 Serv. Entrance 9 Priv. Rec.
11 Prayer Space
12 Ext. Courtyard 15 Office
18 Admin Lob.
Site Plan | Exterior Courtyards
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10
10 3
11
9
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9
9
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6 3
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1 19
3 15
4
14 5 3 3
4
15
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3 18
1 HDU
4 Storage/JC
2 Nurse Station 5 Circulation 3 Bathroom
7 Sec. Entrance 10 Rec. Space
13 Conf. Lobby
16 Conf. Room
8 Gen. Rec.
14 Conf. Space
17 Admin Entr.
6 Serv. Entrance 9 Priv. Rec.
11 Prayer Space
12 Ext. Courtyard 15 Office
Site Plan | Upper Level
p.11 - Blantyre Cardiothurastic
18 Admin Lob.
10 12
9
17
11
7
8
12
6 13
7 14
5 3 18
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22
14
15
4
4 1
19
3
17
21
2
1
16
18
3 23
1 Drop Off
4 Check-in
7 OR
10 Cath. Lab
13 Systems
2 Em. Drop Off
5 Em. Entr.
8 Circulation
11 Nurse Station 14 BR
17 Storage
3 Lobby
6 Patient Prep
9 Rad. Lab
12 ICU
18 Call Room
15 Exam Room
16 Rehab
Site Plan | Lower Level
p. 12
Building Section
Parti Diagram
p.13 - Blantyre Cardiothurastic
Site Axon
p.15 - Blantyre Cardiothurastic
Patient Recovery
Phase One
Surgical Services
Administration/Staff Rehab/Outpatient
Phase Two
Prayer
Education
Phase Three
Project Phasing
West Elevation | Surgical Services
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p.17 - Blantyre Cardiothurastic
Site Section
p. 18
02
GROVE DANCE PAVILION
Design VIII | Spring 2023 | Prof. Craig Griffen In collaboration with Peter Kennedy & Daniel Habeeb The studio this project was created for placed an emphasis on comprehensive design and how site design, envelope, structural, lighting and MEP systems integrate into a building. The core principle guiding this integration is the holistic approach to building design, wherein various static and dynamic variables are perceived as interconnected elements. This approach ensures that the project is directly aligned with serving the needs of its occupants. The ultimate objective of this project was to formulate a design development proposal for the envisioned building. A considerable amount of literature explores the shared theme between dance and architecture, emphasizing the movement of the body through space and time. The building program for this project revolves around establishing a dance and movement school on the campus of Thomas Jefferson University, East Falls. This multi-functional building is designed to accommodate the study of ballet and modern dance, while also serving as a facility for physical and occupational therapy movement treatment and teaching for students in those disciplines. Grove Dance Pavilion functions as both a practice and learning space, featuring informal performances in the main studio, with formal performances hosted in the nearby theater on Penn Charter’s campus.
p.19 - Grove Dance Pavilion
Exterior Perspective | Entrance
p. 20
Plans
p.21 - Grove Dance Pavilion
Exterior Perspectives | Relationship with Campus Center
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Exploded Axonometric
p.23 - Grove Dance Pavilion
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Sun Shading Study
p. 24
p.25 - Grove Dance Pavilion
Exterior Perspective |Interaction with existing fountain
p. 26
North Elevation
PRACTICE STUDIO
p.27 - Grove Dance Pavilion
OFFICE
East Elevation
LOUNGE
MECH.
ENTRANCE
LOUNGE
ST
TOR.
South Elevation
MAIN STUDIO
West Elevation
KANBAR CAMPUS CENTER
Building Section Perspective
p. 28
Detail Drawings 1CONTINUOUS NONPERMEABLE STANDING 5MEMBRANE SEAM ALUMINUM ROOFS
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RIGID 2XPS INSULATION
CLT 35-PLY STRUCTURAL ROOF SLAB
4GLUE LAMINATED PLYWOOD 5BEAM SHEATHING 61 724mm GLASS
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1. Clerestory Detail
Axonometric Wall Sections
p.29 - Grove Dance Pavilion
2. Soffit Detail
3. Limestone Facade to Conc. FND.
8 24 8 14
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9 10 2
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HARDWOOD FLOOR FINISH
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VAPOR MEMBRANE LAYER
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16 1" RIGID INSULATION. 17
3" CONC. FLOOR TOPPING
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PLY CLT FLOOR
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5 4
22 14
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5/8" GYP. BOARD
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BATT INSUL.
GAUGE STEEL STUD WALL
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4. Central Parapet
5. CLT Floor to Conc. FND.
6. Parapet Detail
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1/2” Standing Seam Alum. 8” XPS Rigid Insulation 5-Ply CLT Slab Glue Laminated Beam 3/4” Plywood Sheathing Curtain Wall Jamb 24mm Glass MTL. Coping 3” XPS Rigid Insulation Cant Strip Anodized Alum. MTL. Panel 18 Ga. MTL. Stud Wall 3/4” Hardwood Floor Vapor Membrane Double Layer Woodspring Floor 3” Conc. Topping 1” XPS Rigid Insulation Wood Blocking 20 Ga. MTL Stud Wall L7x4 Angle Bracket 3” Limestone Panel Plaster Finish ABV. Grade Conc. Fnd. Wall MTL. Flashing Mullion Mounted Steel Bracket Lannon Pewter Flamed Cap Glue Laminated Column 3/4” Gypsum Board Batt Insul. p. 30
03
SCHOLARLY STRIDES STUDIO Design VI | Spring 2022 | Prof. Ryan Glick Bethlehem Dance Academy, situated in Bethlehem, PA, occupies a site with historical significance as it was formerly utilized by Bethlehem Steel Co. as a storage facility. Leveraging the existing wall conditions on the premises, the architectural intervention for the dance academy revolves around a deliberate engagement with these walls, drawing inspiration from the interplay of light and structure observed in Jenny Sabin Studio’s Lumen project within the courtyard walls at MoMa’s PS1. The design rationale involves a strategic placement of public, private, and semi-public spaces in relation to the site’s exterior wall. Public areas such as the lobby and cafeteria are anchored to the exterior, while private spaces like dorm rooms find refuge on the interior side, shielded by the wall. In the case of semi-public spaces like the dance studios, the wall serves as a partition, delineating and defining the space. For situations requiring enhanced privacy, a screen system is incorporated to prevent unwanted views from the exterior. The architectural composition highlight the existing arches that function as portals, facilitating entry on the ground plane. Varied floor and ceiling heights are deliberately introduced to prompt diverse interactions with the wall, encouraging users to perceive it from different levels and perspectives. The conceptualization of a central courtyard, serving as an outdoor performance space and garden, emerged organically from the language devised for the program. The central outdoor performance space becomes a focal point, enticing the general public to actively engage with both the site and the overarching architectural design.
p.31 - Scholarly Strides Studio
Site Analysis Sketch
p. 32
Final Building + Site Model Photos
p.33 - Scholarly Strides Studio
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Main Lobby Theatre Backstage Black Box Men’s BR Women’s BR Electrical Room IDF Room Outdoor Performance Outdoor Pavilion Dance Training Room Fire Pump Room Women’s Bathroom Men’s Bathroom Trash + Janitor Closet Faculty Office Faculty Office Admin Office Maintenance Office Cafeteria Food Service Station Kitchen Trash + Janitor Closet Bathroom Bathroom Loading Dock Electrical Room IDF Room Outdoor Courtyard
26
p. 32
Building Section
Tectonic Wall Section Model
p.35 - Scholarly Strides Studio
A
A
1 2
ENVELOPE AND DETAILING
3 4
Regarding privacy parameters across various dimensions plays a pivotal role in shaping the architectural design of the project. Consequently, the building envelope is conceived with the intention of instilling a perception of ethereal weightlessness and permeability, effectively erasing the delineation between interior and exterior spaces and creating nuanced gradients of interactivity. The strategic incorporation of external circulation, balconies, and fenestration serves as instrumental elements in realizing this vision, contributing to the diversification of each building’s facade character.
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B
B
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ROOF + EXTERNAL WALL (A) 1) Green Roof Plantings 2) Solar Panel 3) MTL. Tie down 4) Porous Paver 5) Conc. Slab on MTL. Deck 6) MTL. Deck 7) Perforated Alum. Screen 8) Conc. Slab on MTL. Deck 9) Steel I-Beam 10) 3” XPS + Blocking 11) Precast Conc. 12) 16 Ga. MTL. Stud
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3 4 5 6
C C
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FLOOR (B) 1) Perforated Alum. Screen 2) Alum. Guard Rail 3) Conc. Slab on MTL. Deck 4) Steel I-Beam 5) MTL. Tie down 6) Steel Angle Balcony (C) 1) Perforated Alum. Screen 2) Alum. Guard Rail 3) Precast Conc. 4) Steel Angle 5) Double Tee Joist 6) Conc. Slab on MTL. Deck 7) MTL. Tie down 8)Conc. Col. w/ Drop Caps
Wall Section & Details
p. 36
Exterior Courtyard
p.37 - Scholarly Strides Studio
DYNAMIC RESIDENCY The project aspires to foster a community that transcends individual components, encapsulating the core attributes of vibrant living density, diverse lifestyles, and distinctiveness in communal spaces. This endeavor is realized through the implementation of a nuanced privacy gradient, manifesting at the landscape, building, and unit levels, thereby celebrating the richness of diversity within the community. Moreover, the project strategically integrates architectural elements and landscape design to cultivate a sense of cohesion amid diversity. The deliberate orchestration of communal spaces encourages spontaneous interactions and shared experiences, promoting a harmonious coexistence within the community. By embracing a thoughtful gradient of privacy across various scales, from the expansive landscape to the individual units, the project not only acknowledges individuality but also contributes to the creation of a dynamic and inclusive living environment. This synthesis of architectural sophistication and communal engagement aims to establish a community that is not just a collection of residences but a tapestry of interconnected lives.
Exterior Circulation
p. 38
04
FILTERING MUMBAI
Design VI| Spring 2022 | Prof. Ryan Glick In collaboration with Steph Catrambone & Maddy Tickner The atmospheric conditions in Mumbai rank among the most challenging globally with respect to air quality. Our facility is dedicated to the comprehensive analysis of air quality, including particulate matter, chemical composition, and environmental surveillance. This exhaustive research informs the development and production of advanced facade panels engineered to effectively filter air pollution. Situated at an elevation of 1800 feet above the city, our primary research center accommodates researchers for extended periods, fostering uninterrupted focus and dedication to our mission without the need for frequent returns to ground level. Addressing the critical issue of air pollution extends beyond research and development. By actively engaging in the implementation of innovative solutions derived from our findings, our goal is to the creation of a healthier urban environment. The strategic location of our primary research center at an elevation of 1800 feet accounts for precision research while assessing air quality dynamics. This elevation ensures a comprehensive understanding of the atmospheric conditions that impact the city below. In addition to the facility’s cutting-edge technology and research initiatives, a team of experts remains on-site for extended durations. This immersive approach allows researchers to delve deeply into their work, fostering collaboration and synergy that leads to breakthroughs in air pollution mitigation.
p.39 - Filtering Mumbai
Research Facility Entrance
p. 40
1 2 3 4
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Tectonic Section
p.41 - Filtering Mumbai
FLOATING ABOVE THE CITY At intervals of three hours, algae undergoes photosynthesis and subsequently undergoes fermentation, resulting in pulp. The introduction of chlorine dioxide serves a dual purpose, expediting the fermentation process and purifying drinking water for the researchers. The generated algae pulp is transported through a network of pipes discreetly embedded within the waffle structure. Following this phase, the algae pulp molecules undergo separation and extraction processes using a centrifugal separator. Concurrently, hydrogen is offgassed during this intricate procedure. The extracted hydrogen undergoes compression at a specific rate of 0.006 pounds per cubic foot, after which it is securely stored in a designated tank for future utilization. This streamlined process exemplifies the integration of algae-based fermentation, water purification, and hydrogen production within a structured and efficient system.
TECTONIC SECTION 1) Reinforced bio-plastic waffle structure 2) Bio-plastic algae trays 3) Bio-plastic PVC piping 4) Carbon fiber & polymer liner 5) Pollution testing screen 6) Reinforced bio-plastic framing & door track 7) Reinforced bio-plastic film window 8) Aluminum grate flooring 9) Cork floor finish 10) Cork sub-floor 11) Polystyrene block floor 12) Wooden castellated beam 13) Centrifugal algae separator & extractor 14) Hydrogen compressor 15) Carbon fiber & polymer composite hydrogen tank 16) Reinforced bio-plastic structural shell
Program Split
p. 42
Air Filtration Diagram
p.43 - Filtering Mumbai
Exterior Perspective | In Flight
p. 44
Research Lab
Living Quarters
p.45 - Filtering Mumbai
Level 2
Level 1
Level 0
p. 46
T H A N K YO U
NICHOLAS RUBINO | SELECTED WORKS | 2024