PORTFOLIO SEGMENT TWO
rossmckinnon
ROSS MCKINNON MASTER OF ARCHITECTURE BOSTON ARCHITECTURAL COLLEGE BOSTON, MASSACHUSETTS, USA ross.mckinnon@the-bac.edu 1(403)700-4370 Date of Submission: 12.15.2020
WO RK EMBARC STUDIO Designer - Boston, MA
E D UCATI O N 2020 - Present
BOSTON ARCHITECTURAL COLLEGE Master of Architecture
2018 - Present
+ 76 Ashford Street (Boston, MA) - Helped
+ The Master of Architecture is a first professional
+
+ Member of the American Institute of America
+
evolve the Conceptual Design and presentation packages for a 16 story residential tower in Allston, MA. 1558 Tremont Street (Boston, MA) - Organized the Unit Matrix to follow both Market and Compact Housing Models, while moving forward with conceptual design. 8 Delanson Circle (Wellesly, MA) Collaborated with the Landscape and Civil teams to develop directions for a complex site.
STANTEC ARCHITECTURE LTD. Architectural Designer - Boston, MA
2018 - 2020
+ Abiomed (Danvers, MA) - Worked through + + +
+
Contract Administration throughout various phases over the course of a year. 104 Canal (Boston, MA) - Assisted with the production of the final CD Set of a intricate brick boutique hotel in Boston’s West End Dot Block (Boston, MA) - Design Development and Construction Documents of a four-building development in Dorchester, Massachusetts. The BEAT (Boston, MA) - Responded to RFI’s and reviewed shop drawings during the CA phase of the re-purposing of the former Boston Globe headquarters. Built multiple models in preparation for Client Meetings.
P R O F I C I E N C Y : Revit, AutoCAD, Adobe Creative Suite (Illustrator, Photoshop, InDesign), SketchUp, Bluebeam, Lasercutter.
degree accredited by the National Architectural Accrediting Board (NAAB) that prepares students to earn licensure in as little as 2 years.
+
Students (AIAS) - BAC Chapter Cumulative GPA - 3.84
U N I V E R S I T Y O F C A L G A R Y 2012-2017 Bachelor of Arts - Urban Studies + Interdisciplinary program designed to provide an integrated understanding of the social, political, economic, environmental and cultural processes that shape urban life. + Member of the University of Calgary Men’s Baseball Team (2012-2017)
REFLECTIVE INTRODUCTION It has been close to two years since my last portfolio submission. Over those two years, I’ve had countless sleepless nights, dozens of coffee-fueled design crits, and a handful of self-treated injuries from late night model making adventures (all of this on top of the global pandemic we are all experiencing). I’m not typically a supporter of the ‘rite-of-passage’ mentality, however in this case I couldn’t be happier I’ve been able to experience what I have at the Boston Architectural College. The growth I’ve been able to experience over the last two years only has me more excited to continue along this path. This portfolio is a sample of both my academic and professional growth that I would have never known myself capable had it not been for the City of Boston. Beginning with Studio II, I was able to push forward a design in a city I was finally beginning to feel like a resident of and not a visitor. Studio III & IV pushed me even more to begin solving global and sociological problems through the City of Boston. My goal as an architect is to continue to challenge myself by seeing my work through the everchanging lens of humanity and sociology. This portfolio begins to address this intent through a combination of studio work, and additional coursework.
TABLE OF CONTENTS
Calumet Street Cider House
06
Cambridge Community Recreation Center
20
District Wharf Food Hall & Transportation Hub Building Systems
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ARCHITECTURE STUDIO II: CALUMET STREET CIDER HOUSE INSTRUCTORS BILL BOXX • FALL 2019
6
Tucked into a small urban hillside in Mission Hill, Boston, the design of the Cider House draws a close parallel between the topography of the land and the gravitational process of cider making taking place inside. Through using organic materials like stone, concrete, timber and rusted steel, the design is intended to simplify the transition from the urban context of the site with the natural processes of cider making. A very intentional programming process allows for each space to stimulate their key characteristics and share them with not only the users but also the passers-by. 7
Site
Configuration
1. Basic program applied into a conceptual mass, shaped by the property line.
8
3. Deck structure is shaped allowing for seamless circulation for users at all points of the site. Key element of the Cider Production Facility retains its original shape to provide wayfinding for visitors.
2. Massing is shaped to match the natural topography of the existing site, giving the structure a more personal relationship with pedestrians at both the entrance and sidewalk.
4. Once occupied, the project allows for many modes of circulation all funneling through the central artery.
Documentation 10
9
4
8 2
1 Entry
2 Cafe
3 Production Room 4 Kitchen 5 Storage
3
Level 1
1
7 Production Room
8 Exhibition Space 9 Gallery
10 Community Space
DN
DN
6 Tap Room
UP
5
11 Roof Deck
6
DN
11
7
Level 2
Site Plan
Level 3
9
Tectonics
10
Used as a private retreat for community members, this space’s function is as versatile and adaptable as it’s design. Located in the back corner of the site, this space is intended to be a soft transition from the natural to built environment. The floating ceiling creates a built canopy, working along side the natural canopy of trees.
The perforated metal wall system wraps around the entire streetside façade of the project. An extremely versatile material, this system is intended to function as a light diffuser towards the production center and tap room, as well as serve an aesthetic purpose by appearing as a “glowing lantern” at night and enticing the public to peer into the space.
10
50
20
An elevated position above the fermentation tanks allows for a unique perspective into the intricate process of cider making. The slope of the roof structure allows for unique clerestory windows, increasing natural daylight intake into the production areas, as well as opening up views of the surrounding area. 10
10
50
20
20
50
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ARCHITECTURE STUDIO III: DISTRICT WHARF - FOOD HALL & TRANSPORTATION HUB INSTRUCTORS TYLER HINCKLEY & ROB ADAMS • SPRING 2020 Team:
12
Almira
Akman,
Ross
McKinnon,
Janina
Piorowski
District Wharf is a reflection of the energy and vision inspired from within Boston’s Seaport District. In an increasingly dense neighborhood, District Wharf strives to maintain a balance of natural and build infrastructure, in a rapidly expanding part of the city. By creating a combination of an extended landscape and biophilic facade, the public is given a building that uses the landscape to both protect the invaluable remaining green space while also giving a unique opportunity with an intimate connection with the daily tides. 13
Our site contains several key features which must remain undisturbed the design process - most prominently the continuation of the Harbor extension of Fan Pier’s Green Alley.
Although Fan Pier Park residents with nature, District and bring the
A
14
G
R
E
E
L
L
E
during Walk and
has flourished in their opportunity to connect Seaport it is District Wharf that will cut through the Seaport natural vibrancy of Fan Pier park deeper into the community.
Y
A
N
G
R
E
E
N
L
L
E
Y
2020 Median High Tide
2020 Extreme High Tide
2070 Extreme High Tide
2070 Storm Surge
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Sea
Level
2020 + 6.67’ + 4.24’
16
Rise
EHT Median
High
Tide
2070 + 9.97’ EHT + Anticipated Level Rise
40”
Sea
2070 + 9.97’ EHT + 15’ Target Elevation for Storm Surge protection
Documentation 10'
30'
10'
30'
20' 10'
20'
30'
DO CK TO
WA TER
TA XI
20'
TO ROOF BRIDGE TO ICA
VENDOR
TICKET OFFICE
VENDOR VENDOR VENDOR
VENDOR ROOF DECK VENDOR
VENDOR
ROOFTOP BAR
TO ROOF VENDOR
VENDOR
VENDOR BAR STORAGE VENDOR
VENDOR
CENTER BAR
CO NFER ENCE
VENDOR
RO OM
VENDOR
ADMIN
Level One Plan
Level Two Plan
Roof Plan
17
The adaptable landscape is designed to give people a closer relationship with water, regardless of the level of tide or weather event. Although during storm surges water taxi’s will likely be non-operational, the intent is to still provide the public with a harbor walk that can be safely accessed and used.
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Although high water levels will slow down water transportation, the public food hall will still be celebrated by Seaport residents and the Boston Public, as a resilient building and refuge for exchange, conversation, and public life.
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ARCHITECTURE STUDIO IV: CAMBRIDGE COMMUNITY RECREATION CENTER INSTRUCTOR MICHAEL FERRARA • FALL 2020
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Studio IV challenged us to progress from conceptual design to producing a true and realistic structure by identifying zoning and code constraints, construction and assembly types appropriate for the building proposal. A large emphasis placed on structural and mechanical systems selection, as well as material construction.
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Analysis T
ME
Zoning (Current) = OS L
E
V
E
S E IN A
G
A
Z
RIVE
N
IT
E
S
T
T
A
Includes, but is not limited to: + Art Galleries + Community Halls + Gymnasiums + Libraries + Indoor Tennis Courts C
H
E
S
TN
U
T
S
Site Constraints H
T
60,000 SF Site 10,000 Maximum Footprint 120’-0” Maximum Height E
N
R
Y
S
T
L K O
O
R
IA
O
M
R
E
L
B
M
IN
E
S
T
R
O
C
K
IN
G
H
A
M
S
T
P
E
A
R
L
R
R
S
M
G
T
Q
RLES
A
S
S
D
Assembly Group = A3
S
O
E
G
O
C
N
W
N
T
N
E
TI
CHA
LE
R
S
R L D G
LO
A
M
F
H
A
RIA
G
A
A
R
Z
MO
IN
S
E
T
S
Zoning (Buildable Area) = C3 P
Site
D
R
C
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H
BR
OO
KLI
NE
ST
WA
A
R
L
E
S
R
IV
E
R
VER
LY
ST
Site 70’-0” 60’-0” 50’-0” 40’-0” 30’-0” 20’-0” 10’-0”
MAGAZINE BEACH
MEMORIAL DR
CHARLES RIVER
70’-0” 60’-0” 50’-0” 40’-0”
VIEW FROM MAGAZINE ST
?
30’-0” 20’-0” 10’-0”
MAGAZINE BEACH
MEMORIAL DR
CHARLES RIVER
VIEW FROM MAGAZINE ST
Analysis
One of the critical site constraints was its visual access from nearby neighborhoods. The Project Site was largely blocked by an array of trees.
Due to the visual constraint, what would become of the ‘void’ space created?
120’-0” 110’-0” 100’-0” 90’-0” 80’-0” 70’-0” 60’-0”
My solution: Build Tall
50’-0” 40’-0” 30’-0” 20’-0” 10’-0”
MAGAZINE BEACH CHARLES RIVER
MEMORIAL DR
VIEW FROM MAGAZINE ST
23
Program
Stacked
Program
SOCIAL
ACADEMIC ACTIVITY
ACCESS
SOCIAL
ACADEMIC
ACCESS
24
13’-3”
SOCIAL ACCESS
15’-0”
FLEX
Level 6 73’-3” Level 5 63’-3”
SQUASH
Level 4 43’-3” SPIN
Level 3 28’-3” Level 2 13’-3” Level 1 0’-0”
SOCIAL HUB OUT
LOBBY
ART STUDIO
15’-0” 15’-0”
ART STUDIO
Level 7 83’-3”
EDUCATION CENTRE
10’-0” 10’-0”
Level 8 98’-3”
EDUCATION CENTRE
Integration
YOGA
SQUASH
20’-0”
Level Roof 113’-3”
15’-0”
15’-0”
ACTIVITY
20’-0”
10’-0” 10’-0”
ACADEMIC
Architectural 15’-0”
Organization
15’-0”
Spatial
SOCIAL HUB IN
ELEV. LOBBY
FOOD KIOSK CAFE
15’-0”
ACTIVITY
13’-3”
Block
Massing
BUILDING CORE
Block
Level Roof 113’-3” Level 8 98’-3” Level 7 83’-3” Level 6 73’-3” Level 5 63’-3”
Level 4 43’-3” Level 3 28’-3” Level 2 13’-3” Level 1 0’-0”
EDUCATION CENTRE ART STUDIO FLEX
SQUASH
SPIN
SOCIAL HUB OUT
LOBBY
BUILDING CORE
Design
EDUCATION CENTRE ART STUDIO YOGA
SQUASH
SOCIAL HUB IN
ELEV. LOBBY
FOOD KIOSK CAFE
Statement
WHEN A TREE GROWS A NEW BRANCH, IT IS TAKING AN OPPORTUNITY TO CREATE MORE LIFE THROUGH AN EXTENSION OF ITSELF. THE CAMBRIDGE RECREATION CENTER IS FOLLOWING THIS MECHANISM BY BRANCHING OUT ITS LIMBS TO CREATE SMALL POCKETS OF LIFE SUSPENDED IN THE AIR. IN THESE MOMENTS, THE ARCHITECTURE INTENDS TO FRAME VIEWS, OFFER MOMENTS OF RELIEF, AND CREATE A WARM ENVIRONMENT FOR THE USER. ACTING AS A BEACON FROM THE EXTERIOR, THE INTERIOR ACTS AS A HIDEAWAY FROM THE EVERYDAY STRESSES OF LIFE.
25
26
A
B
C
32' - 5 1/2"
D
30' - 11 1/2"
E
30' - 7"
-
20' - 8 1/2"
Building
F 21' - 3"
-
---
---
Section
-
1 -
27' - 6"
---
READING ROOM
32' - 0"
2
STUDY ROOM -
-
STUDY ROOM -
-
3 18' - 2"
STUDY ROOM
STUDY ROOM
4
30' - 3"
STUDY ROOM
STUDY ROOM -
-
---
---
STUDY ROOM
5
OPEN TO GALLERY BELOW STUDY ROOM
OPEN LOUNGE SPACE STUDY ROOM
-
-
---
---
STUDY ROOM
-
Gallery
Design
STUDY ROOM
ART STORAGE
ART STUDIO
GALLERY
YOGA STUDIO
LOBBY
SOCIAL HUB (INDOOR)
ENTRY & LOWER GALLERY
27
Structure The building is constructed of a simple steel & concrete structure. This allowed for the most freedom when making decisions on the form and flow of the structure. Thanks in large to the small footprint of the building, a fairly small amount of columns are actually carried all the way to the roof level.
28
Building
Details
Concrete
Slab
Steel
Deck
Rigid
Insulation
Steel
Beam
Wood Soffit & Cladding system
29
Mechanical
With a 2000 square foot mechanical room in the basement, we were able to host two (2) boilers, two (2) chillers, water pumps, and adequate equipment to support heating and cooling distribution throughout the building.
Source: The Architect Studio’s Companion, 5th Edition Allen and Iano: page 180181, 185
Source: The Architect Studio’s Companion, 5th Edition Allen and Iano: page 168-169
30
Basis of design - Single Duct, Variable Air Volume System (left)
Mechanical Due to the relatively small footprint of the building, a simple network of ductwork will provide ample heating and cooling all throughout the building. UP
CAFE (LOWER)
BOILER
BOILER
MECHANICAL ROOM
WATER CHILLER WITH CONDENSATION TANK
1075L WATER TANK
Basement
Plan
-
Mechanical
-
-
Room
Level
8
Plan
31
The main entrance features two green roofs, which will also act as water catchment gardens. This trend of “small-scale� green roofs is continued throughout the rest of the project.
32
Water
Catchment
Water
Catchment
Grass w/ overflow capacities Modified Soil (filter)
Transition Layer coarse sand and gravel) Collection Pipe
To Water Storage Tank located in Mechanical Room in Basement
33
As seen for the
34
from Magazine Street, entire neighborhood.
this
community
center
will
act
as
a
beacon
The fourth floor terrace south. This moment is an
will offer tremendous natural light facing dueintegration of interior and exterior activities.
35
BUILDING SYSTEMS INSTRUCTOR JOHN PILLING • T.A. JOHN MAZZOCCHI • FALL 2020
36
We e k 1 2 - I n C l a s s A s s i g n m e n t
ROOF DETAIL
Building Envelope -
I c e , Wa te r , Va p o r B a r r i e r
Copper Cap Flashing
Copper Cap Flashing
Lap and Seal Roof Flashing onto Water/Air Barrier Rainscreen Ventilated Airspace Continuous Rigid Insulation Water/Air Barrier
Sheathing EPDM Tapered Rigid Insulation Sheathing
Lap and Seal Roof Flashing onto Water/Air Barrier
Insulation Support
Interior Finish
Insect Screen
Rainscreen
Continuous Caulk with Backer Rod
Continuous Sealant with Backer Rod Copper Flashing
Water/Air Barrier
Ventilated Airspace Continuous Rigid Insulation Water/Air Barrier
20' - 0"
Official Course Desription: The concept of “Good Building” in the Western tradition began with the Roman architect and author Vitruvius. Its evolution to the present day requires students and practitioners of architecture to consider not only its ‘conditions’ (whose interpretation the instructor has borrowed from theorist Steve Mouzon): “Useful (adaptable / frugal), Durable and Lovable but the systems needed to be designed for it: Safety, Site, Services, Skin, Structure, and Sustainability.
Sheathing
10' - 0"
EPDM Tapered Rigid Insulation
15' - 0"
Sheathing
Insulation Support
Interior Finish Copper Cap Flashing Lap and Seal Roof Flashing onto Water/Air Barrier Rainscreen Ventilated Airspace Continuous Rigid Insulation Water/Air Barrier
Sheathing EPDM Tapered Rigid Insulation Sheathing
Insulation Support
Interior Finish
Insect Screen
Continuous Caulk with Backer Rod
Continuous Sealant with Backer Rod Copper Flashing
Water/Air Barrier
20' - 0"
Continuous Sealant with Backer Rod
10' - 0"
15' - 0"
Copper Flashing
Continuous Sealant with Backer Rod Copper Flashing
Continuous Sub-Grade Insulation Water Barrier Cover Board
Concrete Foundation Wall Filter Fabric Foundation Drainage
Sub-Grade Drainage Mat Capillary Break Foundation Drainage Concrete Foot with Rebar Dense Graded Agregate
The detail reveals the careful location of the air/water barrier in the wall and roof systems. Note: there is NO true vapor barrier employed in the wall so the system can dry in either direction as required by changing weather conditions.
Continuous Sub-Grade Insulation Water Barrier Cover Board
Concrete Foundation Wall Filter Fabric Foundation Drainage
Sub-Grade Drainage Mat Capillary Break Foundation Drainage Concrete Foot with Rebar Dense Graded Agregate
“Room 4” Nicholas Zartarian
TSM2002 - Building Systems - Fall 2020 |
Hunt Stehli
|
Monica
Elkomos
|
Marissa Mayo
|
Ross McKinnon
|
Safa Alazri
Insect Screen
Continuous Caulk with Backer Rod
37
ENETRATION Light
We e k 1 1 - I n C l a s s A s s i g n m e n t
We e k 1 1 - I n D C lA aY s sL A s sH i gTn m t ETRATION IG PeEnN
Building Envelope - Daylighting
Building Envelope - Daylighting
A Window n a l yprovides s i ssufficient amount of daylighting for
most of the space. Supplemental lighting required for portion of room not near the window. Copper Cap Flashing Rainscreen
Ventilated Airspace
1.
Continuous Rigid Insulation
Water/Air Barrier
Sheathing EPDM
Tapered Rigid Insulation
Sheathing
Insulation Support Interior Finish
2.
Insect Screen
7' - 0"
10' - 0"
Continuous Caulk with Backer Rod
4' - 6"
7' - 6"
20' - 0"
3' - 0"
10' - 0"
10' - 0"
Window provides sufficient amount of daylighting for the space. 15' - 0"
ENETRATION
We e k 1 1 - I n C l a s s A s s i g n m e n t Building Envelope - Daylighting Continuous Sealant with Backer Rod Copper Flashing
Continuous Sub-Grade Insulation
Window provides sufficient amount of daylighting for most of the space. Supplemental lighting required for portion of room not near the window Assuming the room is 20’ x 40’ (800 square feet), the window area required is approximately 200 square feet, making it about 28.5 feet long. Water Barrier
Cover Board
1. Window provide s sprovides u f f isufficient c i e amount nt a o u n tfor the o fspace. da y l i gthehroom ting Window of m daylighting Assuming required 40 square f o r m o s t o f t h e s pisa10’cxe15’.(150 S usquare p p lfeet), e mthe e window n t a larea l i g histapproximately ing r e q u i r e d f o r p o r t i o n o f r o o m n o t n e a rfeet,tmaking h e it wabout i n9dfeet o long. w A s s u m i n g t h e r o o m i s 2 0 ’ x 4 0 ’ ( 8 0 0 s q u a r e f e e , T S M 2 0 0 2 - B u i l d i n g S y s t e m s - F a l l 2 0t 2) 0 T S M 2 0 0 2 - B u i l d i n g S y s t e“ R moso -mF 4 a ”l l 2 0 2 0 the window area required is approximately 200 cnhoonl a |s Z Sa ar tf a a rA i al a n z r i| H u n ts Sqt u e hal ir e| f Me on c a, E lmk o Ro n nto n l |o nS g a f. a Alazri M o n i cWindow a E l k o mprovides os | Ma r i s s a amount Mayo |of daylighting R o s s M c KNi ni high ei t am k ois n |g Miatr i s saa bMoa yuot | 2 8 .s5s Mfc Kei e some in Concrete Foundation Wall Filter Fabric
Foundation Drainage
Sub-Grade Drainage Mat
3. |
Hunt Stehli
Capillary Break
Foundation Drainage
Concrete Foot with Rebar Dense Graded Agregate
|
the space. Supplemental lighting will be required.
Window provides sufficient amount of daylighting for areas close to the windows. Supplemental lighting required for inner portion of the space. Team:
38
Safa
2. Window provides sufficient amount of daylighting for the space. Assuming the room is 10’ x 15’ (150 square feet), the window area required is approximately 40 square feet, making it about 9 feet long. 3. Window provides some amount of daylighting high in the space. Assuming the room is 15’ x 20’ (300 square feet), the window area required is approximately 70 square feet, requiring that this narrow clerestory window be 23 feet long, longer than the room itself. If a clerestory is required by other circumstances, supplemental light will be required.
A l a z r i , Window M o nprovides i c a some E lamount k e mofodaylighting s , M ahigh r iinsthes space. a MAssuming a y o , theR o s s room is 15’ x 20’ (300 square feet), the window area required is approximately 70 square feet, requiring that this narrow clerestory window be 23 feet long, longer than the room itself. If a clerestory is required by other circumstances, supplemental light will be required.
TSM2002 - Building Systems - Fall 2020
McKinnon,
Hunt
Stehli,
Nick
Zartarian
*Image obtained through Climate Consultant 6.0 Software
*Image obtained through Climate Consultant 6.0 Software
The design strategies shown on this page are only a sample of the many methods we can use to achieve the goals of the 2030 challenge. The most important on our given site, is that of passive solar heating, and taking advantage of the sun path of our site.
*Images shown on this page were obtained through the Climate Consultant 6.0 Software, and are not my own.
*Image obtained through Climate Consultant 6.0 Software
“This software was developed by the UCLA Energy Design Tools Group, along with the Regents copyright notice. (...) The program was develped as a result of work sponsored by the California Energy Commission. It does not necessarily represent the views of the Energy Commission, its employees, or the State of California. The Energy Commission, the State of California, its employees, contractors, and subcontractors make no warranty, express or implied, and assume no legal liability for the information in this report; nor does any party represent that the use of this information will not infringe ypon provately owned rights.�
39
Code
Analysis
Our parcel on Magazine Beach has been designated as either a C-2 or C-3, which opens up the conversation to a world of possibilities.
Exhibition Halls occupant Concentrated (chairs only *
Square
(IBC
40
foot
2015)
per
occupant
load factor = 30 - not fixed) = 5
net* net*
Egress Minimum 3 means Maximum 200’-0” Maximum 250’-0” (IBC 2018)
of egress distance from distance from
eachother eachother
Plan
(w/o sprinkler) (w/ sprinkler)
44’-0”
35’-0”
41
THANK YOU FOR YOUR TIME