PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
d an Sc alkyar e c n itm ston H a v Wh We Ad
abe H avid
s m m D e e t g rd / s a a y y n g S Ma r Halk in ol of anne d l i Bu ho d/T
Rh n/ rma
ent
uno Br ett
ARCHITECTURAL DESIGN
Plumbing Systems
Project Overview 2
12/5/11
General Overview
52 53
Sewage Conditions/ Drainage Fire Suppression
Architectural Design Program Circulation Atrium Classrooms Office/ Meeting Rooms Spine
55 56 57
Lighting/ Classrooms Lighting/ Office Block Lighting/ Spine
Facade and Roofing Systems Location Context Traffic Wind Temperature Sunlight Louvres
59-60 62 63-64 65
Facades on Plans Atrium Roofing Materiality Occupancy Control
MECHAN ICAL SYSTEMS
14 15-17 18 19 20 21-25 26
Electrical Systems
STRUCTURAL SYSTEMS
Building and Site
BUILDING AND SITE
4-5 6-7 8 9 10-11 12
Matrix Structural Systems Framing Structure Atrium Structure Metal Panel Facade Brick Facade Glass Facade
Table of Contents
68-73
Thermal Massing Wall and Louvres & Adjustable Office Windows
74-81 82-96
Green Roof Atrium Natural Ventilation Break
HVAC in Atrium HVAC in Classroom Block HVAC in Office Block HVAC in Spine
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
40-41 42-44 45-47 48-50
Interventions
ELECTRICAL SYSTEMS
Mechanical Systems
Matrix
PLUMBING SYSTEMS
28-30 31-35 36 37 38
66-67
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
PROJECT OVERVIEW
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
12/5/11
GENERAL OVERVIEW:
ARCHITECTURAL DESIGN
SIZE: 165,000 square ft
BUILDING AND SITE
PROGRAM: Classrooms, Auditoria, Space for team meetings and collaborative activityExecutive Learning Space, Bathrooms, Lounge
STRUCTURAL SYSTEMS
PRIMARY DESIGN ELEMENT: Central communication circulation corridor with a grand stair maximizes program connectivity and daylight penetration of all the interior spaces. It integrates sustainable systems including a sophisticated building management system, under-floor air distribution, and radiant heating and cooling.
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS
PROGRAM TYPE: College/ University CAPACITY: 1,270 people
ELECTRICAL SYSTEMS
BUILDING COST: $30,000,000 COST PSF: $187
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
DESIGNER : FXFOWLE Architects
General Overview
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
12/5/11
Classrooms Offices Bathrooms
BUILDING AND SITE
Vertical Circulation Communal Space
STRUCTURAL SYSTEMS
Each of the primary curriculum programs Undergraduate, Graduate and Executive occupies its own floor in the building. This includes administrative offices, student activity and breakout rooms, and classrooms. Common functions, such as the cafeteria and special teaching spaces, are interspersed on these floors to assure a degree of interaction between students of different programs. The faculty offices and support facilities clustered in the taller, masonry volume on the top two floors, provide calmness away from major activity and ensures camaraderie and communication between academic departments, while remaining accessible to students. The concourse and first floor levels provide spaces for reception andother common uses as well as classrooms shared with the University as a whole.
ARCHITECTURAL DESIGN
PROGRAMMATIC CONCEPT:
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS
The building includes: - 22 classrooms - 200-seat auditorium - 20 team meeting rooms / undergraduate and graduate computer clusters - 11 centers and institutes - 12 student clubs and organizations - Career Center - The Lubin Visitor’s Center
ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Program
12/5/11
Bathrooms
Auditorium
Milton Hall
Offices
Atrium
Cafe
Mechanical
ARCHITECTURAL DESIGN
Classrooms
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS
Horizontal circulation Vertical Circulation
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Program
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
Horizontal Circulation
BUILDING AND SITE
Cir c
STRUCTURAL SYSTEMS
ula tio
n
Vertical Circulation
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS
Elevator Core
ELECTRICAL SYSTEMS
Circulation
Advanced Building Systems
Office/ Meeting Rooms
Weston Halkyard
Tanner Halkyard
Atrium
Rhett Bruno
David Haberman
FACADE + ROOFING
Classrooms
12/5/11
East Adams St.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN PLUMBING SYSTEMS
Walnut Pl.
MECHAN ICAL SYSTEMS
‘Spine’
STRUCTURAL SYSTEMS
University Ave.
BUILDING AND SITE
- The Spine Draws in pedestrians from each of the surrounding streets and then acts as an interior street on which Whiman’s new ‘Urban Fabric’ is located. It is in the spine that all major circulation takes places, connecting the many programs.
ELECTRICAL SYSTEMS
Circulation
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Marshall St.
12/5/11
ARCHITECTURAL DESIGN
ATRIUM/ COMMUNITY LEVEL SPACE
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE
The Atrium is designed to extrude from the urban fabric and and engage both the path of the campus and the street. Aglow with natural light and adorned with interior trees, the atrium provides an ideal lounge/study/special event area with a strong sense of place. At night, the atrium’s transparency opens the building to the exterior, offering dramatic views of the campus and downtown.
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
L OF MANAGEMENT MARTIN J. WHITMAN SCHOO
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Atrium
12/5/11
ARCHITECTURAL DESIGN
ClASSROOM BLOCKS
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE
The finishes of the classrooms balance a dignified corporate ambience and a free-spirited student learning environment. They are set within a case of metal and glass, more public then the office block, but less then the atrium. The glass allows diffuse light into the space, ensuring a suitable teaching space, as well as dimmable artificial lighting.
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Classrooms
12/5/11
ARCHITECTURAL DESIGN
OFFICE/ MEETING ROOM BLOCKS
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE
Expressing the essence of the building’s function, the classrooms are clustered in a volume as a “machine for teaching.” Encased in brick, this is the most private of the block within Whitman’s urban fabric. Where on the first floor it counters the very public atrium by privatizing entirely, on the second a cafe interacts with the the same space. Up until the Atrium roof the floors are mixed between public meeting rooms and private offices, distinguishing between them by either clear or glazed glass.
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Office/Meeting Rooms
12/5/11
MECHANICAL SYSTEM PLACEMENT: PUBLIC vs. PRIVATE
ARCHITECTURAL DESIGN
Private Offices Public Meeting Rooms
- With mechanical and service systems located in the basement and the penthouse, public and private spaces filter in between. Sandwiched between the first and sixth floor which are completely private, are a mix of spaces where privacy prevails as height reaches above the atrium.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Mechanical/Service
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Office/Meeting Rooms
12/5/11
ARCHITECTURAL DESIGN
CIRCULATION SPINE
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE
The circulation spine unifies the composition of Whitman, bringing clarity and orientation to the occupants and, through its diaphanous façade, animating the building both day and night. Sliding out from the other volumes light is able to diffuse through the glass and connect each space. With its shiny metallic ceiling and sparkling terrazzo floor it is meant to remain as bright as possible.
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
‘Spine’
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
12/5/11
GEOGRAPHIC LOCATIOIN
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Site Conditions | Location
12/5/11
Drag direction of green across the block
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS
Low scale structures
BUILDING AND SITE
Parking
The exterior uses natural grass in areas where maple and birch trees are planted, however also incorporates a special type of grass to elaborate on the greenery. Bahia grass occupies the south west side of the building near the the corner and the Sheraton. This type of grass can withstand high heat temperatures as occur in the summer and low temperatures that occur during the winter.
ARCHITECTURAL DESIGN
Green Connection
The green space that is Walnut park just across the block is the perfect place to draw from in terms of connecting the environment to the Whitman site which is otherwise made up of streetsides and pavement. The site takes the vegetation from the park and incorporates them not only in the direct vicinity of Whitman, but also pulls them directly into the interior courtyard space.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
PLUMBING SYSTEMS
Sheraton N
ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Site Conditions | Context
12/5/11
N
MECHAN ICAL SYSTEMS
Gateway Directinality
Gateway
Sheraton
STRUCTURAL SYSTEMS
Low scale structures
BUILDING AND SITE
Whitman is placed on one of the most important lots within the urban layout and occupies the corner of University ave (a primary vehicle occupancy street) and Marshall St ( a primarily pedestrian occupied street.)
ARCHITECTURAL DESIGN
Parking
Whitman School of Management is located on the center axis of the urban grid for the Marshall street area of the University, It occupies the righthand corner of the campus’ “gateway” and draws one through with a finale view of the Hall of Languages directly up university ave. the angle of the fenestrated lounge area of Whitman opens up the building to the occupancy of the street as well as the view towards the entrance as you move up towards the Sheraton.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Center Grid Line
PLUMBING SYSTEMS
Center axis cross points
ELECTRICAL SYSTEMS
Site Conditions | Context
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Hall of Languages
12/5/11
Service
BUILDING AND SITE
Parking
Site
The Glass atrium area of Whitman faces the sun as well as the university. the view towards the Hall of Languages is unobstructed from the corner ofthe lounge. The glass provides not only a window like view but is classified as an outdoor spaces, so the sheer size of the “wall” allows for a complete scenic view.
ARCHITECTURAL DESIGN
View towards the University
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
STRUCTURAL SYSTEMS
Low scale structures
MECHAN ICAL SYSTEMS
Sheraton N
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Site Conditions | Context
12/5/11
East Adams St.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE
Walnut Pl.
MECHAN ICAL SYSTEMS
University Ave.
STRUCTURAL SYSTEMS
Paving Connection showing how the Design of Whitman connects with the paving directioinality of the directly surrounding area.
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Site Conditions | Traffic
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Marshall St.
January
Febuary
9/15/11
March
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE
May
April
June
STRUCTURAL SYSTEMS
August
Sepember
MECHAN ICAL SYSTEMS
July
PLUMBING SYSTEMS
Average Wind Speed- Syracuse 30 mph 25 mph
October
November
December
20 mph
ELECTRICAL SYSTEMS
15 mph 10 mph 5 mph
JAN FEB
MAR APR MAY
JUN JUL AUG SEP OCT NOV DEC
Site Conditions | Wind
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Maximum Average
12/5/11
ARCHITECTURAL DESIGN
Average Temperatures °F
Average Relative Humidity % 100%
90°
90%
80°
80%
BUILDING AND SITE
100°
82°
61°
69%
70%
60°
56%
60% 50%
40°
40%
30°
30%
20°
20%
10°
10%
JAN
FEB
MAR APR
MAY
JUN
JUL
AUG
SEP
OCT
NOV
DEC
JAN
FEB
MAR APR
MAY
Morning
Low
Afternoon
JUL
AUG
SEP
OCT
NOV
DEC
PLUMBING SYSTEMS
High
JUN
MECHAN ICAL SYSTEMS
50°
STRUCTURAL SYSTEMS
70°
ELECTRICAL SYSTEMS
22 degrees = winter ave. 82 degrees = summer ave.
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Site Conditions I Temperature
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
12/5/11
MECHAN ICAL SYSTEMS
Average Percentage of Sunshine 100%
Sh
er
at
90%
on
80%
PLUMBING SYSTEMS
70% 60% 50% 40%
20% 10%
N JAN
FEB
MAR APR
MAY
JUN
JUL
AUG
SEP
OCT
NOV
DEC
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
South
ELECTRICAL SYSTEMS
30%
Site Conditions | Sunlight
STRUCTURAL SYSTEMS
The exterior uses natural grass in areas where maple and birch trees are planted, however also incorporates a special type of grass to elaborate on the greenery. Bahia grass occupies the south west side of the building near the the corner and the Sheraton. This type of grass can withstand high heat temperatures as occur in the summer and low temperatures that occur during the winter.
BUILDING AND SITE
Site
ARCHITECTURAL DESIGN
Sunlight Exposure
The green space that is Walnut park just across the block is the perfect place to draw from in terms of connecting the environment to the Whitman site which is otherwise made up of streetsides and pavement. The site takes the vegetation from the park and incorporates them not only in the direct vicinity of Whitman, but also pulls them directly into the interior courtyard space.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Site Conditions | Sunlight
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE
10°
:47 20
20° 30°
:20 19
20:47
40° 5:25
50°
STRUCTURAL SYSTEMS
°
50
19:19
°
80
°
70
°
60
80°
°
40
°
30
°
20
°
10
N
:30
16
60° 70°
6:42
16:33
7:33
ELECTRICAL SYSTEMS
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Advanced Building Systems
PLUMBING SYSTEMS
The angled glass facade of the atrium allows for the maximum exposure to the sun on a daily occurance.
Site Conditions | Sunlight
MECHAN ICAL SYSTEMS
0
5:3
5
6:4
0
7:3
9 am Noon 3 pm 6 pm Sunrise/Sunset December 21 Equinoxes June 21
9 am Noon 3 pm 6 pm Sunrise/Sunset December 21 Equinoxes June 21
12/5/11
ARCHITECTURAL DESIGN
Noon Sun Intensity Sunrise/ Sunset Intensity
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS
SUNSET SUNRISE
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Site Conditions | Sunlight
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS
- Lights floods into either end of the protruding ‘spine’. The Atrium also filters light into the buildings center where it diffuses into all of its spaces.
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Site Conditions | Sunlight
12/5/11 9/15/11
ARCHITECTURAL DESIGN
Summer Sun
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
12:00 pm
BUILDING AND SITE STRUCTURAL SYSTEMS
Winter Sun 12:00 pm
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Louvres
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
12/5/11
ARCHITECTURAL DESIGN
FOUNDATION AND STRUCTURAL PLANS
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS
Plan of Structural Steel Frame
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Framing Structure
ELECTRICAL SYSTEMS
Foundation and Footing Plan
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS FACADE + ROOFING
Framing Structure
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
BUILDING STRUCTURE - For all the volumes but the Atrium Whitman has a simple Steel frame structure despite its differing facades that helps unify the entire construct.
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Framing Structure
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Section though Foundation
12/5/11
ATRIUM STRUCTURE
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
The structure of the atrium was design for maximum light penetration. The many thin columns oriented along the interior of the glass allow for complete transparency for the campus. As the median between exterior and interior it is the most public space of the building and suggests community and interaction between the campus students and faculty.
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Atrium Structure
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS
The steel colums in the atrium are connected to the floor through concrete and pin joint connections implying a unique structural design for the most celebrated part of the building
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Atrium Structure
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Rotation and flexability of structure
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
The overhead structure of the atrium is connected by pin joints enabling a sound support to an otherwise irregular shape
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Atrium Structure
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE
Aesthetic wood panelling masks the systems within the atrium
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Atrium Structure
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Atrium Structure
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Aesthetic wood panelling is attached to concrete slab above with steel fiber cabeling
12/5/11
CLASSROOM BLOCK STRUCTURE
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
Aluminum Composite Wall Panel
5/8” Exterior Sheathing BUILDING AND SITE
6” Metal Stud Framing
6” Foil Faced Batt Insulation STRUCTURAL SYSTEMS
Access Flooring
Concrete Slab on Metal Deck
MECHAN ICAL SYSTEMS
Continuous Metal Angle Firestops and Smoke Seals
PLUMBING SYSTEMS
Wall Section Metal Stud Bracing
ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Metal Panel Facade
OFFICE/ MEETING ROOM STRUCTURE
12/5/11
ARCHITECTURAL DESIGN
Aluminum Window Assembly
Solid Face Brick Below Horizontal Reveal 2 1/4” x 3 5/8” x 11 5/8” Face Brick 2 ” Cavity Insulation
BUILDING AND SITE
Vapor Retarder Applied to CMU Within Cavity Wall Section
6” Concrete Masonry Unit
STRUCTURAL SYSTEMS
Sprayed-On Fireproofing at Beams (2 Hr. Rating)
MECHAN ICAL SYSTEMS
Adjustable Galv. Wire Tie at Beam @ 16” O.C.
Steel Beam
Galv. Stl, Ties w/ Seismic Clip and Cont. 9 GA. Wire
PLUMBING SYSTEMS
Adhered Flexible Threu-Wall/Sill Flashing
ELECTRICAL SYSTEMS
Plastic Fiber Mesh Cavity Filler “Mortar Net”
5/8” Gypsum Board
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Brick Facade
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
12/5/11
Concrete Floor Slab
ARCHITECTURAL DESIGN
CIRCULATION SPINE STRUCTURE
PTD. 2 Hr. Rated Shaft Wall Assemble
BUILDING AND SITE
PTD. GWB Cove
STRUCTURAL SYSTEMS
Suspended Ceiling System Anchored to Slab Above
MECHAN ICAL SYSTEMS
Wall Section
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Line of Reveals Beyond
2 Hr. Fire Rated Metal Mullion W/ PTD. Finish 2 Hr. Fire Rated Glass Wall Assembly
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
5/8” Terrazzo Base Applied to 4” Concrete Block Epoxy Terrazzo Finish Floor
Glass Facade
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Concrete Floor Slab
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
MECHANICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
12/5/11
ARCHITECTURAL DESIGN
DISPLACEMENT VENTILATION AIR CONDITIONING (UNDER FLOOR)
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE
- A typical displacement ventilation system, such as one in an office space, supplies conditioned cool air from an air handling unit (AHU) through a low induction diffuser. The cool air spreads through the floor of the space and then rises as the air warms due to heat exchange with heat sources in the space (occupants, computers, lights). - The warmer air has a lower density than the cool air, and thus creates upward convective flows known as thermal plumes. The warm air then exits the zone at the ceiling height of the room.
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
HVAC in Atrium
12/5/11
ARCHITECTURAL DESIGN
Voids cut in the roof allow heated air to exit naturally. The Atrium Space Can very nearly be considered an outdoor space.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
HVAC in Atrium
12/5/11
DISPLACEMENT VENTILATION AIR CONDITIONING (UNDER FLOOR)
ARCHITECTURAL DESIGN
Floor Vent
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Ceiling Strip Vent
BUILDING AND SITE
- A typical displacement ventilation system, such as one in an office space, supplies conditioned cool air from an air handling unit (AHU) through a low induction diffuser. The cool air spreads through the floor of the space and then rises as the air warms due to heat exchange with heat sources in the space (occupants, computers, lights).
STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
HVAC in Classroom Block
12/5/11
ARCHITECTURAL DESIGN
DISPLACEMENT VENTILATION AIR CONDITIONING (UNDER FLOOR)
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
- The warmer air has a lower density than the cool air, and thus creates upward convective flows known as thermal plumes. The warm air then exits the zone at the ceiling height of the room.
BUILDING AND SITE STRUCTURAL SYSTEMS
Strip vent warm warm air exits
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
HVAC in Classroom Block
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Floor vents fed by low induction diffuser
12/5/11
ARCHITECTURAL DESIGN
Indicated in blue a large stack vent runs up the outside edge of both classroom volumes. Mechanical rooms hugging this “tube” help feed this displacement ventilation system.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
HVAC in Classroom Block
12/5/11
ARCHITECTURAL DESIGN
HVAC IN OFFICE BLOCK
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
The Office Block uses a simple radiator system along the windows where a sophsticated building monitor system is located.
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
HVAC in Office Block
Supply Diffuser
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Exterior Wall Radiator
12/5/11 Supply Diffuser
Return/ Exhaust Register
Convective Radiators
ARCHITECTURAL DESIGN
Supply Diffusers allows for a split in the air flow emerging from the air duct into individual jets and guides them in the desired directions. This results in a rapid reduction in the velocity and temperature of the air entering the room, thus ensuring pleasant temperatures in the occupied zone.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Supply Diffuser
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS
Exterior Wall Radiator
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
HVAC in Office Block
9/15/11
ARCHITECTURAL DESIGN
The entire System runs up the core where it is supplied by the mechanical room in the penthouse.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS
Detail of a duct when attached to the concrete slab.
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
HVAC in Office Block
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Detail of a duct when attached to the steel frame structure.
12/5/11
ARCHITECTURAL DESIGN
On the fourth floor where there is only a glass wall, a radiotor (As seen on right) runs along the hallway opposite the vents to ensure the space is kept warm.
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS
Radiator strip along glass wall
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
HVAC in Spine
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Strip vents hidden along edge of wall
12/5/11
SUPPLY AND RETURN SYSTEM THROUGH THE BUILDING “SPINE”
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
Strip Vents run along the spine, with ducts breaking off to feed the public bathrooms flanking the space. The system is served by the penthouse on the 7th floor.
BUILDING AND SITE STRUCTURAL SYSTEMS
Strip vents
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
HVAC in Spine
12/5/11
ARCHITECTURAL DESIGN
Core rises up to the penhouse to feed the system. On the fourth floor the radiator is shown where the wall becomes entirely glass along the corridor.
Mechanical Room in Penthouse
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE
Hvac System moves through core
STRUCTURAL SYSTEMS
Strip Vent
MECHAN ICAL SYSTEMS
Radiator along glass
PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
HVAC in Spine
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
Type A Grate Access Cover at Grade CB-9 Drainage
BUILDING AND SITE
Type B Grate
ARCHITECTURAL DESIGN
N
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Site Water Flow
Topography
STRUCTURAL SYSTEMS
Subgrade Piping
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Sewage Conditions/ Drainage
12/5/11
FM-200 Fire Suppression Systems
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
Developed as a Halon replacement, FM-200 is the best people-compatible, clean agent fire protection for vital facilities. It extinguishes fire via a combination of chemically-based fire inhibition and cooling. It is environmentally acceptable, safe to use with sensitive equipment, fast acting, efficient and effective.
BUILDING AND SITE
FM-200 is the preferred fire suppression system for facilities that can't afford fire related business interruption. It is non-toxic on people.
STRUCTURAL SYSTEMS
Benefits of Using FM-200 • Fast-Acting FM-200 can stop fires in just seconds. Extinguishing fires quickly means less damage, repair costs and extra safety. • Safe For People FM-200 has been tested extensively to ensure safe exposure to people. • No Collateral Damage FM-200 does not leave oily residues, particulates, water, or corrosive material. This eliminates collateral damage to delicate equipment. • Environmentally Responsible FM-200 has a low environmental impact because it has a low atmospheric lifetime. It also has zero potential to deplete the ozone layer. • Small Space Requirement Other fire suppression systems, such as C02 and inert gases require as much as seven times more storage space. • Globally Accepted FM-200 is the most widely accepted clean agent in the world. It is used in tens of thousands of fire suppression systems.
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Fire Suppression
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
12/5/11
REFLECTED CEILING PLAN: CLASSROOMS Recessed Downlight
Round Pendant
Recessed Downlight
6’ Linear Pendant
8’ Linear Pendant
Smoke Detector
ARCHITECTURAL DESIGN
Round Pendant
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Lighting/ Classrooms
12/5/11
Recessed Downlight
Recessed Downlight
Track Lighting
8’ Linear Pendant
6’ Linear Pendant
Smoke Detector
ARCHITECTURAL DESIGN
REFLECTED CEILING PLAN: OFFICES
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Lighting/ Office Block
12/5/11
REFLECTED CEILING PLAN: SPINE Recessed Downlight
4”x4’ Semi-Recessed Ceiling Fixture
12’ Linear Pendant
ARCHITECTURAL DESIGN
Round Pendant
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Smoke Detector
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Lighting/ Spine
PROJECT OVERVIEW
ARCHITECTURAL DESIGN
BUILDING AND SITE
STRUCTURAL SYSTEMS
MECHAN ICAL SYSTEMS
PLUMBING SYSTEMS
ELECTRICAL SYSTEMS
FACADE + ROOFING
FACADE AND ROOFING SYSTEMS
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
View From Southeast
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Facades on Plans
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
View From Northwest
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Facades on Plans
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
HIGH-ALBEDO ROOFING High-albedo roof coatings can reduce building air-conditioning energy use. High-albedo--that is, very reflective--coatings lower the absorption of solar energy, reduce surface temperatures, and decrease heat transfer into the building.
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Atrium Roofing
12/5/11
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
TRANSLUCENT CERAMIC FRIT
BUILDING AND SITE
- Ceramic enamel frits contain finely ground glass mixed with inorganic pigments to produce a desired color. The coated glass is then heated to about 1,150°F, fusing the frit to the glass surface, which produces a ceramic coating almost as hard and tough as the glass itself. A fired ceramic frit is durable and resists scratching, chipping, peeling, fading and chemical attacks. - Ceramic frit helps control heat gain, diffuse light, and can be toughened enough to gain 2 hr rating.
STRUCTURAL SYSTEMS
Example of a typical ceramic frit pattern
MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Materiality
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
View of Ceramic Frit in Whitman accentuating the directionality of the ‘Spine’.
12/5/11
TRANSLUCENT CERAMIC FRIT
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
ARCHITECTURAL DESIGN
- Ceramic enamel frits contain finely ground glass mixed with inorganic pigments to produce a desired color. The coated glass is then heated to about 1,150°F, fusing the frit to the glass surface, which produces a ceramic coating almost as hard and tough as the glass itself. A fired ceramic frit is durable and resists scratching, chipping, peeling, fading and chemical attacks. - Ceramic frit helps control heat gain, diffuse light, and can be toughened enough to gain 2 hr rating.
BUILDING AND SITE
ALUMINUM COMPOSIT PANNEL
STRUCTURAL SYSTEMS
View of Ceramic Frit in Whitman same as on spine to advocate the connectivity.
MECHAN ICAL SYSTEMS
- Aluminum Composite Panel is composed of non-toxic and low density polyethylene core between two sheets of aluminum by using “extrude and continuous composite” compositing production line. - The innovative product conception of seemingly contradictory properties such as excellent formability and stability, low weight and large sizes, brilliant colors and weather resistance,
PLUMBING SYSTEMS
- Though the core material does contain a small amount of combustible polyethylene, the main ingredient of the non-combustible mineral filled core does not permit the proliferation of flame and restricts smoke. It is a fire-safe material that passes mandatory requirements for exterior and interior application.It is an ideal material for external claddings, roof of pedestrian passage and other architectural applications.
ELECTRICAL SYSTEMS
Typical Aluminum Composite Panel post-production
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Materiality
12/5/11
ARCHITECTURAL DESIGN
SOPHISTICATED BUILDING MONITERING SYSTEM
PROJECT OVERVIEW
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
- Occupancy Sensor Controls: Monitor the occupancy of individual offices to ensure efficient lighting and HVAC systems usage.
BUILDING AND SITE STRUCTURAL SYSTEMS MECHAN ICAL SYSTEMS PLUMBING SYSTEMS ELECTRICAL SYSTEMS
Fins along fenestration functioning as occupancy sensor
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
FACADE + ROOFING
Occupancy Control
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT Functional
Architectural Design
Building and Site
Structural Systems
Mechanical Systems
Environmental Systems
Programmatic Systems
Matrix
The function of the architecture is to create a seperation of program through the distinction of facade. The modernist brick facade encompasses the most private elemennts of program while the glass facades hold the more public or “usable” areas. The interior finishes of the design are chosen to mold the stark corporate buisness and public freedom ideologies together in a learning environment that is both successful and pleasant.
The buildings functional purpose is to become raised off of the site so that the water runoff of the building drains away from the structure and not towards it. It functions as a community building on the ground level and becomes privitized and focused on the program above the street level.
9/15/11 Contextual
Each of the material uses of the building engage the scale and character of the surrounding structures and allow for the city to move smoothly into the university atmosphere. These design elements remove the harsh contrast between the low lying building elements and the more graceful ideas of the campus buildings. The circulation within the design allows one to orient themselves within the site at all times while simultaneously unifying the volumes. The spine is raised above the rest of the building to help out-elevate the shadow that is cast by the Sheraton to the south. Contextually the building functions as a gateway to the university along one of the most important and occupied streets at the university. It responds to the recent expansion into the downtown area and is a landmark upon entering the real estate of the university. The surrounding buildings apart from the Sheraton Hotel are all low lying structures that do not create a lot of impact or attention. The ramp at the front of the building draws the community into the building at the first level.
The structural systems for the Whitman School of Management consists of a steel framing grid aligned with the intersection between programmatic differeces. The steel structure sits atop a concrete footing base aligned similarly. The structure of the building is exposed at many points within the structure allowing the skeleton of the building to show and giving the building a cool sense of value.
The structural systems are contextually used within the building through the use of steel framing and concrete footing. Many nearby structures including the marshall square mall as well as the Sheraton use this exact idea for their designs. In addition the majority of the surrounding structures are built into hillsides, or inclines, so the footings are ajusted accordingly to give correct support and stability.
The mechanical system works through a displacement ventilation. It supplies conditioned cool air crom the AHU through a low induction diffuser. This allowes the cool air to rise as it gets warmer creating a more comfortable environment for the occupants.
The cool air rises due to heat exchange with heat sources in the space so that the warmer air obtains a lower density thus creating an upward convective flows known as thermal plumes. this allows cool air to come in from outside on the lower areas of the spaces and escape through the higher spaces. The atrium is classified as an outdoor space so is cut off from the rest of the building and acquires its own systems.
The environmental systems work to incorporate the sun in terms of lighting, and the greenery from other areas in the vicinity of the site. The large atrium windows function to allow maximum light into the center of the building day and year round, as well as contribute to unobstructed views of the surrounding university. The greenery works to connect life within the building to the exterior
The environmental systems withing the building take from the context directly and incorporate the greenery within the building to make interior mesh with interior.
The programmatic function of the building is to establish a new urban fabric through the seperation of the building into seperate volumes that each take on its own function conected down the center by what could be called a small street on each level or “spine” that holds the volumes together. Each floor is color coded at the important entry points and accented wals to allow occupants to orient themselves and lower the required exit signs or directional notices or appliances. The classrooms are located in one area to express the jewl quality that is teaching/learning. Each classroom = interactiveness.
The contextual idea of the program is to give the building its own urban fabric through the seperation into individual volumes. It uses the form of the surrounding buildings brought together to maintain the volumetric context. The daylight thatpenetrates the building allows for a consistant linkto the exterior of the building.
Environmental
Pros and Cons
Intervention
The environmental design elements are numerous, one of which is the high-perfomance envelope that minimizes the energy use of the building. Others include below-floor air displacement, radiant cooling and heating in the atrium, highly efficient air filtration, occupancy radar system within the upper levels and distribution and a very high-tech building monitoring system. Every material chosen was picked for its low- VOC content as well as its ability to be recycled. These include carpets, paints, furniture and ceiling tiles.
Pro: The visual connection to the different programmatic concepts of the building through choice of material and design. High performance design and vigor in use of material. Speaks to the context of the site.
The building maintenance practices are developed at a high ability to ensure that the building does not loose its sustainable value over time. It was designed to progress and change to the needs of the university, whether those be social or academic allowing the buildign to hold more weight within integrity of the university.
Pro: The building allows for the site to be least impacted because it is raised as high as possible. The walkways accomodate ideas of connection to the university.
The structural system does not directly work to imporve the environment, as it is a steel frame basis with concrete footings.
Pro: The construction process reduces the cost of the building. Keeps the engineering simple. Common materials make it easier to acquire.
Usable upper exterior space. Louvres in atrium on exterior of building/ shading device.
Con: Exterior spaces on the roof are not used. The atrium can become hot because louvers are on inside so the heat has already entered the building.
Manipulate city side of building face
Con: The buildings “back” is turned to the gateway shutting the jem of the couryard out.
Alternate materials to increase sustainability?
Con: The sustainability rating of the design suffers for lack of reusable materials. Lack of aesthetic where structure is exposed. The systems of the building connect to the environment through the use of the atrium space primarily. It encompasses the exterior space within a living space within the building and is a buffer zone between inside and outside. The occupancy sensors on every window allow for a minimal excess use of lighting and air conditioning. They recognize when a room is occupied or vacant and turn on and off the systems of that room accordingly.
Pro: They work to increase the sustainability and environmentally friendly aspects of the design. They allow for more pleasant conditions within the occupied spaces.
Alternate cooling in atrium/ possible
Con: Does’nt keep atrium cool enough. Takes up space that could be communal.
The environmental systems are designed at a high integrity so that the building works in what seems to be the most efficient and sustainable way possible. Each system is designed to create low impact and maximize occupant comrfort while relating to the direct context and drawing from existing usage of ideologies.
Pro: They connect the environment and building that is otherwise always kept seperate. Allows for the feel of exterior space.
The atrium program allows the for the maximum sun exposure year round and for the most hours in a day.
Pro: Allows for the seperation of people and their studies. Allows for a communal space within the center of the program through the spine.
Con: Hard to maintain plants and their shed/ change.
Con: Seperates the communal space on the ground floor and the class space on the upper floors, and the professional space in the “seperate building”
Advanced Building Systems
Weston Halkyard
Integrate cafe/ social space to passing traffic.
Tanner Halkyard
Rhett Bruno
David Haberman
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT Functional
Contextual
9/15/11 Environmental The environmental design elements are numerous, one of which is the high-perfomance envelope that minimizes the energy use of the building. Others include below-floor air displacement, radiant cooling and heating in the atrium, highly efficient air filtration, occupancy radar system within the upper levels and distribution and a very high-tech building monitoring system. Every material chosen was picked for its low- VOC content as well as its ability to be recycled. These include carpets, paints, furniture and ceiling tiles.
Architectural Design
Contextually the building functions as a gateway to the university along one of the most important and occupied streets at the university. It responds to the recent expansion into the downtown area and is a landmark upon entering the real estate of the university. The surrounding buildings apart from the Sheraton Hotel are all low lying structures that do not create a lot of impact or attention. The ramp at the front of the building draws the community into the building at the first level.
Building and Site
The building maintenance practices are developed at a high ability to ensure that the building does not loose its sustainable value over time. It was designed to progress and change to the needs of the university, whether those be social or academic allowing the buildign to hold more weight within integrity of the university. the green spaces within and without the building aid in the consistant high air quality.
Redesign DrawbackThere are some environmental design aspects of whitman that could be enhanced or changed. The first is the protruding occupancy sensorson the exterior of the brick-clad office segment. They hinder the windows in their ability to open and allow natural circulation to variate the microclimate within.
ChangeOur intervention for the occupancy sensor windows on the brick-clad office block, incorporates operable windows that allow natural air to enter the space and alter the otherwise completely air conditioned rooms. This change will optimally allow the HVAC (radiators and air diffusers) to work less to condition the air spaceas the occupancy sensors will sense that there is natural air circulation, therefore halting the need for constant conditioned air.
Drawback-
As a contextual gateway to the university, the design of whitman more or less turns its back to the city. The captivating design elements happen towards the entrance with the atrium, entrance walkway, and glass cladding. The brick facade relates to the context of the city but apart from the protruding element of the spine glass, does little else to announce the start of the University. A drawback to the environmental qualitiesof the building and site is that it minimally uses the idea of greenery within the design. The building claims that it draws from walnut park on campus in terms of trees and grass but it is of minimal use.
Change-
A proposed intervention for this drawback is a curved wall element that draws the public of downtown into the backside of the building in a more street like maner. The curved wall/ atrium is clad in yellow like the walls of the main atrium. it would open the backside of the building and visually draw the public into the program. A seperate idea of a green roof for the atrium contributes to the lack of green space in the urban fabric of the marshall street area. It would allow the roof which is otherwise a hot flat surface to be accessable.
Structural Systems
The systems of the building connect to the environment through the use of the atrium space primarily. It encompasses the exterior space within a living space within the building and is a buffer zone between inside and outside. The occupancy sensors on every window allow for a minimal excess use of lighting and air conditioning. They recognize when a room is occupied or vacant and turn on and off the systems of that room accordingly.
Mechanical Systems
Environmental Systems
The environmental systems work to incorporate the sun in terms of lighting, and the greenery from other areas in the vicinity of the site. The large atrium windows function to allow maximum light into the center of the building day and year round, as well as contribute to unobstructed views of the surrounding university. The greenery works to connect life within the building to the exterior
The mechanical systems within Whitman use an air displacement system which can control the air quality alreay found within the building. The drawback comes because of the lack of natural ventilation whithin the building as a whole. Everything is sealed off from the exterior which provides a clear seperation from the feeling of natural air flow.
Change-
The large intervention proposed, deals with the lack of air flow through the first three floors. the proposal pushes the offices back toward marshall street and uses the interior space to create an atrium that protrudes through the north wall to not only visually connect the building to the site movement and downtown, but funnels the windward breeze into the north side through the 5 floor atrium allowing for less wear and use of the air displacement system, and greater utilization of natural ventilation.
Drawback-
The environmental systems withing the building take from the context directly and incorporate the greenery within the building to make interior mesh with interior.
The design utilizes natural daylight in the atrium, upper hallways, and inside the classrooms, as well as through the normalized windows on the office mass. The design for natural daylight does not incorporate the ground floor level, or the shaded side of the north and north eastern side of the building. This creates greater work for the mechanical system through the greater use of artifical lighting.
Change-
The alteration can be considerd linked to the green roof proposal. The environmental systems for whitman can be enhanced through the use of the green roof’s rain/waste water collection abilities, the photosynthesis of the plants enhance the oxygen quality in the area, and connect to the park. The building will be able to save energy through the insulation and lessen heat gain during the summer. It would allow people to exerience these environmental system and would lessen wind load on the building. The atrium program allows the for the maximum sun exposure year round and for the most hours in a day.
Programmatic Systems
Drawback-
DrawbackThe drawback to having sunlight so exposed to such a large glass space is that the space becomes very hot very quickly when exposed with such little shading. The space has no outlets for the heat as the upper floors are completely cut off from the space, and therefore the heat can only escape through the small vents in the roof. The atrium uses things such as high albedo roofing to help cut down on heat but the problem still persists.
Change-
An alteration to this effect is to have the louvers in the atrium ajustable to allow for the complete block out of the sun at the hottest points during the summer months. This would decrease the heat affect within the atrium and decrease the need for air conditioning within the space. A second proposal is to have a thermal wall mass that would replace the otherwise programmaticly colored yellow wall. the mass would collect the direct heat of the penetratin sun and harnes it, releasing it into the space during the night which would be a more efficient system than air diffusers and strip vents, or an air displacement system.
Matrix
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
Thermal Massing Wall
Thermal Massing Wall and Louvres + Adjustable Office Windows
Green Roof on Atrium
Natural Ventilation Break
12/5/11
Existing Space
- The total window area is about 50,000 ft, the thermal mass for this area is about 30,000 while the maximum area for 24,000 ft. The dominant heating method is an air displacement system, so the thermal mass can save about 12% heating load.
Day rendering showing new Concrete, Thermal Mass.
Natural Ventilation Break
Adjustable Louvers
Concrete, Thermal Mass
Existing Space
Thermal Mass
Night rendering showing new Concrete, Thermal Mass.
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Green Roof on Atrium
- A Thermal Wall in the atrium will allow us to store heat throughout the day during the cold months and radiate at night to provide warmth while the space is being used for studies at night.
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Rhett Bruno
David Haberman
Noon - December 21st Angle - 25*
12/5/11
Tracking Louvers using a mechanical Pulley System
10° 20° 30° 20:47
40° 50°
5:25
60° 70° 80° 19:19
6:42
- Making the Louvers track the low sun angle during the winter will allow more sunlightt to land upon the thermal mass. In summer they will remain at the same angle as how they curently exist, keeping most of the sunrays out of the space.
35* Noon - June 21st Angle - 66*
Thermal Mass
December 21st | 12 P.M.
25 degrees
Advanced Building Systems
December 21st | 3 P.M.
35 degrees
15 degrees
Weston Halkyard
Equinoxes 21st | 11 A.M.
Tanner Halkyard
Rhett Bruno
David Haberman
Natural Ventilation Break
5 degrees (Perpendicular to glass)
7:33
9 am Noon 3 pm 6 pm Sunrise/Sunset December 21 Equinoxes June 21
Green Roof on Atrium
16:33
Summer | Daily Winter | Sunrise and Sunset
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
12/5/11
Adjustable Office Windows
Set-back Window slides across behind the Occupancy Sensor
Set-back Window slides back on track
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Thermal Mass
Natural Ventilation Break
Existing
New
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Existing Office Windows
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Natural Ventilation Break
Thermal Mass
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Operable Office Windows
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Set-back Window slides back on track
Natural Ventilation Break
Thermal Mass
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
Thermal Massing Wall
Green Roof on Atrium
Green Roof Atrium
Natural Ventilation Break
12/5/11
E F F I C I E N CY O F E N E R GY C O O L I N G 75% loss
Green Roof on Atrium
Tar roofing creates a heat gain that in turn, generates what is called heat island effect. This contributes to global warming as none of the energy is harnessed or used within the building. It forces the building s systems to work harder to actively heat and cool the interior.
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Conventional Tar Roofing
E F F I C I E N CY O F E N E R GY C O O L I N G 24% loss Increase in energy savings is temporary and labor costs are significant in comparison to saving. The 24 % loss in cooling energy savings after the first year is a result of dirt accumulation- minimizing the reflectiveness of the albedo.
Natural Ventilation Break
Used High Albedo Roofing
E F F I C I E N CY O F E N E R GY C O O L I N G 25% gain
Proposed Extensive Green Roofing Green Roof
The green roof curbes the urban heat island effect, allowing for the efficiency of energy use to become a gaining relationship. it uses the low lying plants to work as a blanket insulator to keep the heat out of the building in summer and inside during winter. A green roof helps in the city of syracuse because of the unpradictability of weather and it lowers the possibility of corrosion in areas like street and sewer areas through the efficient use of drainage and rain water to aid in the plant life.
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Average Roof Heat Flux
3.00
CONVENTIONAL VS. GREEN
2.00 1.50 1.00 0.50 0.00
Conventional roofs are what make up a large part of Syracuse city’s impervious survaces and contribute to two key problems. They create and urban heat island effect as well as urban storm-water runoff which contribute to the consumption of energy and increase the need for water as well as energy systems to deal with the excess of both that is produced. With the intervention of a green roof system , our goal is to cut down on our water and energy excess production and save both directly and indirectly. We plan to use the green roof to cover and provide a blanket of shade to reduce the heat gain of the surface area.
-0.50 1
3
5
7
9
11
HOUR OF DAY
13
15
17
19
21
19
21
Eastern Conventional Roofing- peak surface temp: 130 degrees at 1pm Eastern Green Roofing- peak surface temp: 93 degrees at 10pm
Average Roof Surface Temperature
The current system uses High-Albedo Roofing wich is a low heat gain material, however the affect the sun has on the atrium space calles for a 0 heat gain surface which the green roof can supply.
Natural Ventilation Break
140
o
Temperature F
120
100
80
60 1
Green Roof
Green Roof on Atrium
HEAT FLUX, BTU/h - ft
2
2.50
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Advanced Building Systems
3
5
7
Weston Halkyard
9
11
HOUR OF DAY
13
Tanner Halkyard
15
17
Rhett Bruno
David Haberman
12/5/11
EXISTING ATRIUM ROOF CONDITION
Green Roof on Atrium
“If I could change something about this buildinging, being a buisness finance student, it would be the fact that no one can go outside and experience the roof of the atrium which looks like it was meant to walk on. It is always locked but it would be awesome to see the view and hang out up there. I think they lock it because at some points during the year it gets so sindy, it could literally blow you over.” -Kelly class of 2012
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Natural Ventilation Break
Existing Roof Wind Condition Green Roof
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
INTERVATION :ATRIUM ROOF CONDITION
Green Roof on Atrium
A green roof intervention will incorporate an extensive green roof design, meaning that it will contain shallow soil and low growing plants spread horizontally across the roof plane. They will consist of grasses and other succulents that can withstand and grow in the more extreme weather climates, including large exposure to sunlight and harsh winds.
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
The extensive green roof will be more cost effective than an intensive green roof, the other of its kind that uses more material to allow larger plants to grow, as well as a greater support system. The intervention will utilize the existing structure that is currently placed for aesthetic appeal and requires the minimal additional material .
Natural Ventilation Break
Proposed Roof Wind Condition Green Roof
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Plants/ Sedum -
MODULAR GREEN ROOF INSTALLATION - Inexpensive Installation
Lightweight, FLL-Approved Growth Medium Lighter weight that most topsoils, this growth medium works to drain storm water and is weed free. Its support capability is between 4.8 and 6 pounds psf per inch depth, and prevents harmful substances from flowing into runoff. It holds the water that is caught and does not compact once plan examples are granulated clay or shale mixed with organic compounds or fertilizer.
Oldroyd TP Filter Fleece-
minimize weight and optimize water management as well as prevents the water spread on the surface of the roof. Itprovides a simpler installation method, as there is an already existing grid on the roof.
Green Roof on Atrium
- Insulation allows the meeting of code while reducing excess roof insulation
The top layer consists of a variety of sedum (a low maintenance plant that can survive in the harsh conditions of Syracuse NY. It utilizes six different types of sexum: - Sedum refluxum, - Sedum sexangulare, - Sedum acre, - Sedum kamschaticum, - Sedum spurium “Fuldaglut” - Sedum album.
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Adhered Sure-Weld TPO Single-ply membrane-
heat weldable sheet that has a high breaking strengthand puncture resistance. resistance to UV rays, oxidation and is 100% recyclable
increases drainage rate and water holding capacity. Holds 1.63 pounds of water (0.2 gallons/ 0.31” of rain) crush resistance and strength.
Suitable Waterproof Membraneprovides moisture resistance to prevent water from entering below the sealant and into the space.
Adhered Moisture- Resistant Gypsum Board like the waterproof membrane the moisture-resistant board relieves underground water-created pressure and resists the penetration of water from under the green oof into the structure
Concrete Slab The bottom layer is a concrete deck slab with will provide the base for the green roof as well as span the distance for the new structural addition and strengthening areas.
Green Roof
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
Natural Ventilation Break
Oldroyd XV20 Green Xtra Drainage Layer (49-70% Recycled) -
12/5/11
PROPOSED GREEN ROOF CONDITION
PROPOSED GREEN ROOF CONDITION
Studies show that the plant life on the green roof minimize the amount of storm water runoff and the photosynthesis of the plantsreduces the amount of greenhouse gasses into the atmosphere.
Green Roof on Atrium
The flat feature of the high albedo roofing encourages dust and dirt to accumulate on the surface, therefore comprimising the integrity of the use of the material. It also forms a negative pocket of wind that neglects the use of the roof by the public.
Natural Ventilation Break
Accessibility
Tree Plant Boxes Growth Sedum Waterproof Layering
Intensified Structure
Green Roof
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
SEALANT MEMBRANE Existing Structure Existing Concrete Slab
1 SQ FT OF GREEN ROOF
HIGH ALBEDO ROOFING
G R E EN R O O F I N G
Green Roof on Atrium
3 INCHES OF SEDUM 15-20 LBS PSF WHEN SATURATED 1-2 LBS OF PLANTLIFE .5 LBS OF FILTER MEMBRANE LIVE LOAD + OCCUPIED BY PEOPLE 2,979 SQ FT OF ROOF AREA ABOVE ATRIUM
- ALBEDO ROOFING + GREEN ROOFING = ADDITIONAL 62,559 + LBS OF GREEN ROOF
Green Roof
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
Natural Ventilation Break
1 SQ FT OF ALBEDO ROOF
H I G H A L B E D O R O O F I N G
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Thermal Massing Wall
Green Roof on Atrium
Natural Ventilation Break
Natural Ventilation Break
12/5/11
Green Roof on Atrium
Average Wind Speed- Syracuse 30 mph 25 mph 20 mph 15 mph 10 mph
Natural Ventilation Break
5 mph
JAN FEB
MAR APR MAY
JUN JUL AUG SEP OCT NOV DEC
Maximum Average
Adjustable Wind Tracking Fins that inhabit the ventilation break allow controlled natrual air to enter the windward side of the building lessening the requirement and use of the current HVAC system
Current Site Wind Flow Direction
Natural Ventilation Break
Average Wind Speed- Syracuse 30 mph 25 mph 20 mph 15 mph 10 mph 5 mph
JAN FEB
MAR APR MAY
JUN JUL AUG SEP OCT NOV DEC
Maximum Average
Intervention Site Wind Flow Direction
NATURAL VENTILATION BREAK
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Gathering Spaces Spaces along the ‘Spine’ which have become gathering spaces for students to work on the Concourse to Third level and for faculty events on the Forth Floor.
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Existing 1st floor
NATURAL VENTILATION BREAK
Existing 2nd floor
Existing 3rd floor
Advanced Building Systems
Weston Halkyard
Natural Ventilation Break
Existing Comcourse
Existing 4th floor
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Natural Ventilation Break
Strip vents
Plan showing existing condition
Section showing existing condition
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
Natural Ventilation Break
Section showing intervention and movement of program to the East tower
12/5/11
Occupants within the building prefer natural ventilation and air, therefore the opening of the windward North side of the building would draw the wind through the corridor (streets) making this idea of natural ventilation feasable. The pressure differentiation from the north to the south building with the wind movement draws air through the hallways and up through the atrium allowing the occupants to experience a change from the artificially conditioned air in the current design.
Green Roof on Atrium
Passive Ventilation Systems Concourse Level
Natural Ventilation Break
First Floor
Second- Fourth Floor
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Rhett Bruno
David Haberman
12/5/11
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
NATURAL VENTILATION BREAK
Natural Ventilation Break
Warm Exterior Temperatures- Showing the Louvers in their open stage to allow for natural ventilation from the windward side
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
NATURAL VENTILATION BREAK
Natural Ventilation Break
Cold Exterior Temperatures- Showing the Louvers in their closed stage to allow for the building to gain heat in the winte
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Natural Ventilation Break
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
The original Structure does not allow for natural ventalation to pierce the spine through the windward side of the building.
Origional Structure Conditioined air is brought up through the air ventilation system and artificially conditions the spine.
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Natural Ventilation Break
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Peeling the windward facade open calls for a manipulation of the structure attached to the spine therefore scaling down the office and cafe program on the maine street side of the building. To make up for the loss the extracted program will be placed on the top of the 6th floor non street side of the office zone
Manipulated Structure
Green Roof on Atrium
with intervention fresh air can be supplied to the communal spaces overlooking the atrium on the second and third floors as well as the spine of the building and tha atrium during the warm months of the year
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Natural Ventilation Break
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
Design Capacity (kBtu/h)
Design Flow Rate (ft3/min)
185617
1470.4
Sensible (kBtu/h)
1103.3
Latent (kBtu/h)
327
Humidity (%)
464.7
Floor Area (ft2)
Volume (ft3)
f3/min (ft2)
29315.1
469110
44.62
Green Roof on Atrium
1644.3
Total Cooling Load (kBtu/h)
12/5/11
I N T E R V E N T I O N C O O L I N G L O A D J U L Y 1st
159
12,527
97.4
258.8
29.3
1803.3
NATURAL VENTILATION BREAK
Design Flow Rate (ft3/min)
198144
Total Cooling Load (kBtu/h)
1568
Sensible (kBtu/h)
Latent (kBtu/h)
1211.6
356.3
Humidity (%)
464.9
Advanced Building Systems
Floor Area (ft2)
29315.1
Volume (ft3)
f3/min (ft2)
469110.1
44.96
Weston Halkyard
Tanner Halkyard
Natural Ventilation Break
E X I S T I N G C O O L I N G L O A D J U L Y 1st
Design Capacity (kBtu/h)
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Rhett Bruno
David Haberman
12/5/11
0 -2000 -4000
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
-6000
Green Roof on Atrium
-8000 -10000 -12000 -14000
MODIFIED COOLING LOAD APRIL-JUNE
0 -2000
Natural Ventilation Break
-4000 -6000 -8000 -10000 -12000 -14000
ORIGIONAL COOLING LOAD APRIL-JUNE
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Natural Ventilation Break
Intervention effect on current lighting
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman
12/5/11
Thermal Massing Wall
MARTIN J. WHITMAN SCHOOL OF MANAGEMENT
Green Roof on Atrium
Natural Ventilation Break
NATURAL VENTILATION BREAK
Advanced Building Systems
Weston Halkyard
Tanner Halkyard
Rhett Bruno
David Haberman