DESIGN
architectural portfolio
benjamin costabile
Benjamin Costabile New York Institute of Technology School of Architecture & Design Manhattan Campus 229 Cochran Pl Valley Stream, NY 11581 516 205 6233 ben.r.costabile@gmail.com
Academics Marsh Brooklyn Sustainable Home GreenHouse Apt. Biomass Housing - 0" 30' - 0"
Work Experience
PROJECT LOCATION
71st AVENUE
NEW C.C.
'-4 98
°0
34' 5
4"
90
122.82'
51°
SS CE AC
ER RN
AY BW SU
0' 00 "
" 00
50.00' 9
0°
0'
T. IS EX
O 2" 1/ ST C 4 'RE 98 EA N O
T 2"
EXIST. CONC. BLOCK & BRICK BANK
DN
DN DN
°0 90
1/
00 15' '0 0"
CVS Forest Hills 87.50'
0" 4'
-
EXIST. 1 STORY CONC. BLOCK & BRICK COM. BLDNG
0" 128 °
25' 06
EXIST. 6 STORY BRICK BLDNG
0"
0"
'-
2
'0
'-
15
2'
00
' 45 1.
32
12
4" 1/
200.00'
19
AD RO T) E IC REE RV ST SE H OW RT RR NO (NA
D AR EV ) UL EET BO TR NS E S EE ID QU (W
2
.W .O 'R 00
HOUSE #108-07
EXIST. GARAGE @ BASEMENT (COURT YARD ABOVE)
NEW 1 STORY BLDNG
ZONING MAP : 14a ZONING DISTRICT : C1-2 IN R7-1
9
Lot Area 1" = 100'-0"
Area Schedule (G Level DN
Exist'g Area
DN
DN
Name
1st FLOOR Exist'g Area 1st FLOOR KeyFoo
Marsh Brooklyn Semester: 4th Yr. Fall 2011 Course: Design V Professor: J. Fink Site: East New York, NY East New York, a community that some say has seen better days. The location of Broadway Junction, one of the most travelled subway stops in all of NYC, this neighborhood is in desperate need of revitalization. After visiting and analyzing the site, one observation became very apparent; the lack of communal green spaces. With grassroots efforts budding throughout the community, the idea behind this maste plan was to bring a natural element that would not only serve as a space, but become an integral part of the area’s future. A green space would be redundant, being that smaller spaces have started to rise, so after searching through possible schemes, a plan to install a man-made Marsh was decided amongst a team of three. Ideas of residential integration, public spaces, and sustainable infrastructure became the guiding principles of this project. A Marsh that would reclaim unused land along an old freightline, and then eventually install itself elsewhere throughout East New York.
1
2
3
0' 91.36'
industrial zone PLOT PLAN 6 1" = 50'-0"
Exist'g Area
0째 0
site observation
"
71st ROAD (NARROW STREET)
30' - 0" 15' - 0"9
25' 06
1st FLOOR KeyFood 8507 SF
DN
7878 SF
16386 S Area Schedule (Gross Build
KeyFood
N
8507 SF
Level
Name
abundance of vacant lots brown sites outdated infrastructure 1st Floor Existing 1" = 100'-0"
7
1st FLOOR Area
Area
9853 SF
1st FLOOR KeyFood 8576 SF
Area
2438 SF
Area
SUB-CELL Area AR
16719 S
CELLAR
Area
5499 SF
1st FLOOR Area
2438 SF
ROOF
Roof Area
8825 SF
ROOF
Area
5510 SF
9853 SF KeyFood 8576 SF 8
1st Floor New 1" = 100'-0"
lack of a
57420 S
natural element
my vision
existing parks and green space proposed ‘green way’ marsh the current ‘combined’ sewer system of NYC leads water into jamaica bay, causing pollution and wasting valuable resources
man-made marshes are able to filter up to 250,000 gallons of water
jamaica bay
1
marsh syst
project phasing
Problems of waste and water management have become a problem for New York City in the past few decades. Through a natural filtration system, a new ecological infrastructure, propogated as a MARSH, will find its way down Van Sinderen Ave.
tem proposed to make its way to
Once the intial scope of work is completed, local installations will begin to occur. Public housing & local municipalities will recieve green roofs. These systems will feed into local rain gardens, located in nearby vacant lots.
After ecology and infrastructure have been implemented, a development of new high and low rise housing typologies will solidify the marsh as a permanent component of East New Yorks biology, infrastructures and future developments.
IN
PI TK
AV E
ST
ON PK Y
W
ET ER Y
M
CE
BI NS
RO
LT ON
FU
IE
N
EE
GR
JA CK
ER
EV
1
2
2 3
3
marsh system proposed to make its way to
1
1 solar canopies
1 solar canopies
2
a source for energy much needed
a source for energy much needed 3
2 marshland a new ‘ecological corridor’
2 marshland a new ‘ecological corridor’
3 public parks
rain gardens create pockets
local marshes closer to jamaica bay green roofs across east new york
3 public parks
rain gardens create pockets
local marshes closer to jamaica bay
jamaica bay
VA N
EN
ER
ND
SI
AV E
EN CL SI VA N
PE
NN SY LV AN I
A
AV E
AV E
green roofs across east new york
Sustainable Home Semester: 3rd Yr. Fall 2010 Course: Environmental Systems Professor: R. Dadras Site: Alamar, Cuba
Humid, tropical climate with heavy sun expsoure located on a shore receiving strong currents fluctuating temperature from day to night
latitude: 23.133 longitude: -82.35 azimuth: 135 altitude: 35
Bedroom
Master Bedroom
Living Room
Bathroom
Bathroom
Den
Gallery Guest Bedroom
Wash Room
second floor
ground floor
long section
SUSTAINABILITY FEATURES STACK EFFECT is the movement of air into and out of buildings driven by buoyancy.
Buoyancy occurs due to a difference in indoor-to-outdoor air density resulting from temperature and moisture differences. The result is either a positive or negative buoyancy force. The greater the thermal difference and the height of the structure, the greater the buoyancy force, and thus the stack effect.
THERMAL MASSES are a building technique used to harness the natural heating and
cooling properties of materials. This is commonly used in hotter climates where a cool environment is desired. Adobe brick has a high R-value, which allows for heat to be absorbed throughout the day, and then released back into a space at night.
HYDRO-ELECTRIC ENERGY has now become a commonly used forms of renewable
energy, harnessed by the flow of water. A hydro electric turbine, similar to wind turbines, planted along the ocean bed collects energy from a turbine powered by the flow of the current.
GREEN WALLS consist of modular panels installed upon a frame, which vegetation
can grow from. Also named a ‘Living Wall’ , the wall can be used to cool down a buildings temperature as well as increase the oxygen content in the air for
SUN SHADING
, or the process of controlling the sunlight entering a building, can be accomplished through a number of different methods. The techniques employed generally depend on the climate and the use of the space. Properly designed overhangs and light shelves can enhance daylighting while reducing uncomfortable glare and unwanted solar gain.
SOLAR WATER HEATING is the process of collecting solar energy to heat water for use throughout the day. Passive and Active systems are available, depending on what the use may be. A passive system can supply a reservoir to be heated and used over time.
GreenHouse Apartments Semester: 3rd Yr. Fall 2010 Course: Design IV Professor: W. Rockwell Site: Lower East Side, NY
A 40-unit complex located on historic Delancey St. The area is rich with culture, where people are often seen enjoying themselves outdoors. In analyzing the local site, it became apparent how important green spaces were to the community. This building’s goal is in turn a continuation of that idea. Devising a strategy that would allow every apartment to recieve maximum natural air and ventilation, as well as a terrace space open to the sky, the GreenHouse Apartments become a ‘home’ literally wrapped in green space.
UP
UP UP
2nd Floor
Ground Floor
This diagram explains a study of how a form could infill the site. Requirements of ‘open-to-sky’ square footage and a minimum of 30’ of space from an outside facing window pushes space into configuration. The buildings mass then became the void in between these courtyards.
1500
3600
30ft
2832
UP
UP DN
DN
Typ. 3-5
Each unit will have access to a terrace, completed with a green wall on all exterior faces. A panel system of mesh at clearstory will be operable to allow for shading when closed, as well
2-Unit plan
3-Unit and 1-Unit plan
BioHousing Towards a ‘Natural’ Architecture. Humanity has gone through great lengths to create an artificially built environment to inhabit. This necessary piece of our system, unfortunately has adverse affects on the primary system we serve; that of Earth (i.e. ecology. biology) Earth in itself is a system which completes itself through cycles, sensitively balanced throughout. Humankind’s course thus far has been ultimately linear, and such is our way of producing and consuming. We must understand the biological systems sustaining mother nature, Earth itself. Humans can apply the tenets of balance or ‘self-completing cycles’ of production and consumption to the built world we so desire to live in. In this discovery however, sensitivity to the primary system is most important. A method for moving forward in either complete cohesion or total isolation must be designed. I propose the latter as the safer choice, to both the benefit of the Earth and comfort of humans. A system separated both figuratively and literally, by edges of worlds, built and organic fields, distinguised by mediating borders containing systems supporting its inhabitants.
site
Greenpoint, Brooklyn st
varic
mor
k ave
d gran
ve
a gan
ED N N O W O D N G A R AB OVE
ge l ed stria tland f we ndu he i miles o ow t is n nce 3.8
so t wa wha
Newtown Creek
1891 vs. 2012 Clean marshland to polluted airway
ZONING MAP
FLOOD ZONES
DENSITY OF AIR POLLUTION
WATER RISE IN THE YEAR 2050
CONCEPT DIAGRAM
PROGRAM DIAGRAM
58% of NyC Waste Transfer
A Brief Timeline of Newtown Creek History - Early history. Native Americans called the creek, where they fished and swam, Mispat, which means “overflowing tidal stream” or “bad water place,” depending on which historian you believe. At that time, the creek was large enough that it had islands. - Early 15th Century. The Dutch begin to settle Manhattan.
- 1630s on. Dutch and English settle the creek, and - 1638. The Dutch West India Company purchases the land around the creek for New Amsterdam. set up farms, as well as some early industry, along both banks. - 1613. Dutch survey Newtown Creek.
- Some historians claim this early activity makes the Creek the oldest industrial waterway in the United States. - 18th century. More farming! - 1850. Neziah Bliss (for whom Blissville is named) built the Blissville drawbridge to Greenpoint (later rere placed laced by Greenpoint Avenue Bridge). This would lead to the industrialization of Greenpoint, which would soon house shipbuilding, printing, pottery, glassworks, and foundries. - 1866. The Laurel Hill Chemical Works is founded in Maspeth. The company would go on to develop numernumer ous important innovations in chemical and copper manufacturing and contribute to the fortunes of both Allied Chemical and the Phelps Dodge Corporation well into the 20th century. - 1867. First modern oil refinery in the US opens on the creek.
--11870. 870. John D. Rockefeller opens what will come to be known as Sta Standard Oil, on the Ne
- 1978. The Coast Guard observes a plume of oil in Newtown Creek coming from the end of Meeker
Avenue. Upon investigation, the full scale of the Standard Oil (now ExxonMobil, Chevron/Texaco, and BP)
17 – 30 million gallons of oil has been released into Newtown Creek
leak discovered in 1950 becomes apparent:
- 1980s. Areas of Greenpoint begin a slow process of conversion from industrial to residential uses. Several sites in the Newtown Creek area are designated Federal or State Superfund sites. Industrial activity will clean up significantly over the next decades. - 1992. Newtown Creek is designated a Significant Maritime Industrial Area (SMIA) by the City, mean to foster the continued growth of water-dependent industrial uses, which are increasingly difficult to site in NYC. - 2005. Greenpoint/Williamsburg rezoning. Environmental impact statement anticipates additional population of 16,700 people and net loss of 1 million square feet of existing industrial capacity. Even so, East Williamsburg alone employs 15,000 workers.
- 2005. Meeker Avenue Plume is discovered. The decades old contamination is made up of several large plumes of toxic chemicals under East Williamsburg, which release volatile gases into the homes and businesses above. It is now a state Superfund site. - 2009. Newtown Creek Wastewater Treatment Plant upgrade and expansion completed. Nature Walk along creek is opened to the public.
-2010. The designation of Newtown Creek as Federal Superfund site by US Department of Environmental Protection.
wtown Creek.
- 1900. Rockefeller owns over 100 oil distilleries on both sides of the creek. Both sides of the creek are now lined with shipyards, foundries, industrial food processors, and fabric and paper mills. - Standard Oil’s distilleries were good for the economy, but they also spewed on average 30,000 gallons of industrial effluent each week, most of it directly into the creek. Environmental regulation did not exist until the 20th century.
58% of nyc waste transfer +5.6
PAH
-1.3
21,000 ug/kg
- 1920s – 1930s. The creek is a major shipping hub. Its banks are widened, deepened, and bulkheaded to accommodate bigger boats.
- 1950. The explosion of a reinforced concrete sewer in Greenpoint reveals a massive underground oil spill at Standard Oil. - 1967. Newtown Creek Wastewater Treatment Plant constructed. - 1970. The US Environmental Protection Agency is formed. The era of handling industrial waste by disposing of it in the creek is over
- 1978. The Coast Guard observes a plume of oil in Newtown Creek coming from the end of Meeker
o2 < 1 mg/L
continous dredging to remove 15ft of sludge 170 acres of contaminated sediment
BioMass
Terrarium
Housing
BioMass
4. Boiler The boiler produces hot steam to send to the back pressure turbine for electricity.
5. ESP After exiting the boiler the flue gas is cleaned in an electrostatic precipitator to remove up to 98% of particulate.
3. Oxidizer The syngas is conveyed into the oxidizer where it is combusted with the resulting flue gas directed through a boiler. 2. Gasifier Fuel is processed in stages including drying, pyrolysis and gasification. The wood is converted into “syngas” that can be used to displace energy produced by natural gas.
Stack
1. Fuel In-Feed Organic waste (inluding bark, mill residue, clena recycled construction material) is loaded into the fuel bin and conveyed to a metering in near the gasifier.
4
Electric Turbine
3
5
2
DRY ALGAE EXCESS SOLD
EXCESS SOLIDS TO SAND BEDS FEED
CARBOHYDRATE AND OTHER ANIMAL FEEDS
STOCK WATER
MAKE-UP WATER
SOIL CONDITIONER (CROPS) DIGESTED SOLIDS
COW (1) URINE & MANURE CHICKENS (50) MANURE
URINE & MANURE WASTED FOOD
MILK AND EGGS
ANAEROBIC FERMENTATION
ALGAE GROWTH SYSTEM
SUPERNATANT
ALGAE WATER VAPOR
SOLAR STILL
DISTILLED WATER STORAGE
DRINK WASH COOKING SYSTEM WATER CLOSET
FOOD PREPARATION
REFRIGERATION ILLUMINATION
HAND PUMP
SURPLUS SOLD
Amount of Waste
classification
recyclables foodwaste metal wood
DRINKING
FLUSH WATER
URINE & FECES
Calculating a BioMass Plant
1
SEDIMENTATION
DISTILLED WATER
RAIN
GAS STORAGE
EXCESS RAIN OVERFLOW
scale/measure volume
HUMANS (4)
MILK AND EGGS
Average kW/Home
Wattage of Plant Average demand is 2kW/Home
RICE, CEREAL, VEGETABLES & SPICES (PURCHASED)
In Greenpoint
16,000 Homes
ideal size: determined by allowable space 25 mW 130,000 c3 volume for biomatter
@ 2kW/Home 1 MW / 500 HOMES 32,000 kW/16,000 Homes
32 mW / 16,000
Service 12,500 Homes
Terrarium A system under nature Components -Redtwig Dogwood
-Water Hyaconth
-Maiden Hair Furns
-Hornbeam
-Cattail
-Sedges
-Rushes
Wetlands
Public Terrarium and park, for the preservation of nature
Sourghum, Wheat, and Herb farming
Housing
Housing Incentives
Allowable square footage of one structural bay: 3-4 floors with 12 units each
9600ft2
Total square footage:
28,800ft2
Projected Income
2013 Average $1500/sqft. Average return for one structural bay outfitted with housing
$43,200,000
CVS in forest hills Firm: ID:a Architecture Supervisor: Spiro Bazigos Site: Forest Hills, Queens, NY Date: August 2010 One-story light commercial building. Tasked with detailing the exterior walls, cellar, and sub-cellar levels. Front facade treatment was designed in office and modeled in 3d in Revit Architecture. Buildings overall structure and enclosure modeled in Revit Architecture and detailed in AutoCAD 2011. 4
5
2
6
6
9
10
108 SF
135 SF
1' - 11 5/8" 2' - 2 7/8"
STO LOTUSAN EIFS CORNICE BY STO CORP.
ALUMINUM COPING
T.O. PARAPET 90' - 0"
SPANDREL GLASS
SPANDREL GLASS
SPANDREL GLASS
4' - 4"
4' - 4"
1' - 8"
6' - 0"
EXISTING KEY FOOD
7' - 3"
1' - 8"
8' - 0"
8' - 0"
SPANDREL GLASS
24' - 0"
6' - 0"
SPANDREL GLASS
4' - 9 3/4"
3' - 8 1/2"
17' - 1 1/ 2"
4' - 0"
6' - 7"
18' - 9 3 /4"
SPANDREL GLASS
1' - 6"
6' - 0"
EXISTING BANK
8
7
4' - 8"
7' - 8 5/8"
ROOF 86' - 0"
1' - 6"
1' - 11 5 /8"
T.O. PARAPET 90' - 0"
Front Perspective 2
Rear View
5
18 SF
Front Perspective 1
SUBWAY ENTRANCE
12' - 0"
13' - 8"
8' - 8"
13' - 8"
CANOPY W/ RECESSED DOWNLIGHTS 3'-0" PROJECTION FROM FACE OF BUILDING TELESCOPIC AUTOMATIC SLIDING ENTRANCE SYSTEM BY STANLEY ACCESS TECHNOLOGIES PRODUCT: DURA GLIDE SERIES 5300
6' - 0"
12' - 0"
6' - 0"
12' - 0"
6' - 0"
12' - 0"
6' - 4"
5' - 4"
4' - 5 3/4"
3' - 6" 2' - 5 1/8"
ROLLING SERVICE DOOR BY OVERHEAD DOOR CORPORATION PRODUCT: STORMTITE SERIES 625 FIBER CEMENT BOARD (NICHIHA) 6'x1'-6" STO LOTUSAN EIFS BASE BY STO CORP.
STOREFRONT BY KAWNEER WITH OPERABLE SIDE WINDOWS AND LOCK
CANOPY LIGHT
CELLAR 56' - 0"
9' - 0"
CELLAR 56' - 0"
12' - 0"
10' - 0"
1st FLOOR 66' - 0"
SUB-CELLAR 47' - 0"
SUB-CELLAR 47' - 0"
- 0" 30' - 0"
PROJECT LOCATION
71st AVENUE
'-4 98
87.50'
DN DN
°0
0' 00 "
27,002 SQ,FT.
34' 5
4"
90
122.82'
51°
SS CE AC
ER RN
AY W UB
DN
" 00
50.00' 9
0°
0'
EXIST. CONC. BLOCK & BRICK BANK
S T. IS EX
O 2" 1/ ST C 4 'RE 98 EA N O
T 2"
°0 90
1/
00 15' '0 0"
NEW C.C.
0" 4'
-0
200.00'
EXIST. 1 STORY CONC. BLOCK & BRICK COM. BLDNG
" 128 °
25' 06
EXIST. 6 STORY BRICK BLDNG
00 "
'-
4" 1/
"
0'
0"
15
2
0° 0
3
2'
1
'22
91.36'
71st ROAD (NARROW STREET)
PLOT PLAN 6 1" = 50'-0"
30' - 0" 15' - 0"9
' 45 1.
.W .O
19
AD RO T) E IC REE RV ST SE H OW RT RR NO (NA
D AR EV ) UL EET BO TR NS E S EE ID QU (W
2
'R 00
HOUSE #108-07
EXIST. GARAGE @ BASEMENT (COURT YARD ABOVE)
NEW 1 STORY BLDNG
ZONING MAP : 14a ZONING DISTRICT : C1-2 IN R7-1
9
Lot Area 1" = 100'-0"
Area Schedule (Gross Building Exist'g) Area Type Level Name Area DN
DN
Exist'g Area
DN
7878 SF KeyFood
N
8507 SF
7
1st Floor Existing 1" = 100'-0"
Area 9853 SF KeyFood 8576 SF 8
1st Floor New 1" = 100'-0"
1st FLOOR Exist'g 7878 SF Area 1st FLOOR KeyFood 8507 SF
Exterior Area Exterior Area
16386 SF Area Schedule (Gross Building New) Area Type Level Name Area 1st FLOOR Area
9853 SF
Exterior Area 1st FLOOR KeyFood 8576 SF Exterior Area SUB-CELL Area 16719 SF Building AR Common Area Area 2438 SF CELLAR Area 5499 SF Building Common Area 1st FLOOR Area 2438 SF Building Common Area ROOF Roof 8825 SF Building Area Common Area ROOF Area 5510 SF Building Common Area 57420 SF
Front Elevation 3/16" = 1'-0"
e' B
C
E
W12X65
4
2 1/8"
11' - 6"
8' - 1"
16' - 7"
16' - 7"
18' - 0"
K
J' 8' - 3 7/8"
EL.+66.00 11' - 7" DN DN
L 8 1/4"
11' - 6 1/8" DN
" 5/8
" 3/8
1'
-6
14
D
"
'-
0"
EXIT CAPACITY WIDTH IN./OCC. LOAD
COLUMN WRAP DETAIL (COL. A) 1/2" = 1'-0"
3
COLUMN WRAP DETAIL (COL. B) 1/2" = 1'-0"
21
0 '-
'-
180 P
.2
EL.+64.00
"
STAIR CAPACITY WIDTH IN./OCC.
C
21
26' - 8 1/8"
-9
5
7
36"
2
J
I
20' - 0"
1'
1'
7
'-
H
G
W14X257
2"
1'
14
F
" 1/2
44"
.3
1 1
LOAD 147 P
ROOF ABOVE
1
1 A-501
0"
1
B
10' - 0"
1
1
2
DN 3' - 8 1/2" DN SHAFT OPENING A-501
8"
-0
"
-6
A
STAIR A 3'-8" CLEAR
6" DIA. STORM DRAIN UP & DN
1
1" 2' - 0"
6'
5'
3
36" PATH OF EGRESS
A-301
1 A-201
PROPERTY LINE
4
A
A
34 R @ 0' - 6 1/2"
3'
B
1
B
16' - 0"
1
A
8'
5' - 3 5/8"
B
" 1/2
B
1 3 '-
3
AY DN BW SU
-0
.2
104"
"
520 P
'-
A
A-301
B
B
13
2
'-
5
8"
24 9"
16
66.00 7'
5
E 8'
Vestib.
SHAFT
1
3 A-102
B
ANSI/UL 263 DESIGN No. X518 RATING - 2HR.
-8
101
"
5
'-
"
B
A
8"
-3
C AN TR EN
4'
B
B
B
4'
A
21 '-
2 A-102
0"
-0
Retail
A
B
B
B
102
"
323 PERSONS
12 '-
4'
5' - 10 1/4"
4
25' - 0"
0"
2-hr FIRE RATED WALL EXIT CAPACITY WIDTH IN./OCC. LOAD
9' - 4"
12
DN
A-202
0"
1
1
OCC. GROUP: M USE GROUP: 6
6
B
A
6'
A
B
4
-0 "
20 '0"
B
NEW WALL ON PROPERTY LINE
12
B
'0"
NS EE QU
B
UNISEX RESTROOM
STOREFRONT
103
6'
7
-0
4 2 A-102 A.102
B
A
"
15 '0"
'0"
90째 00' 00"
-0 "
'0"
4
LOADING AREA
'0"
W14X257 2 LAYER 5/8" GWB
3
1 5/8" MTL. STUD
1 A-500
A
2-hr FIRE RATED WALL
3
VRC
66.00 A
7'
9
4" DIA. SANITARY DRAIN DN 3 A-302
3
104
3
4" DIA. SANITARY DRAIN DN
4
B
12
1
2
2-hr FIRE RATED WALL 90째 00' 00"
6'
20
RD VA
A
2 A-302
2
8
A-200
1
B
66.00
12
E UL BO 1
A-300
A
-5
A
3
1 LAYER 5/8" GWB 6" DIA. STORM DRAIN UP & DN
3 5/8" MTL. STUD @ 24" O.C. 4" CMU
" 1/4
10" CMU
20 '-
6 5'
0"
-4
SK-3 EXIT CAPACITY WIDTH IN./OCC. LOAD 240 P .2 48"
4'
"
-0
"
DN
1 90째 22' 28"
0"
180 P
1'
.2
4
STAIR 'B' 3'-8" CLEAR 18 R @ 0' - 6 21/32"
A
A-201
EXIT CAPACITY WIDTH IN./OCC. LOAD 36"
-0
2
10
first floor
3'
"
1
N
11 1'-0" TO LOT LINE
STAIR CAPACITY WIDTH IN./OCC. LOAD 44" .3 147 P SHAFT OPENING
A
DESIGNATES COLUMN TYPE A - MAX. SIZE W12x65
B
DESIGNATES COLUMN TYPE B - MAX. SIZE W14x257
PERIMETER COLUMN DETAIL 1/2" = 1'-0"
5' 6'
ANSI/UL 263 DESIGN No. X518 RATING - 2HR.
FIRE PUMP CONTROLLER
11' - 6 1/8"
RETENTION TANK ROOM
3
E
1' - 11 7/8"
SC90
A.D.
0"
STAIR CAPACITY WIDTH IN./OCC. 44"
.3
LINE OF MECH MEZZANINE ABOVE
5a
EL. 47.0'
LINE OF MECH MEZZANINE ABOVE
0"
3 A-501
STAIR 'A' 3'-8" CLEAR
1
'-
A-301
8"
1"
2' - 0"
3
4
A.D.
SC03
A.D.
UP
'0
SUBMERSIBLE SUMP PUMP IN CONCRETE PIT W/ PERFORATED COVER SIZE: 2X2
4
0"
EXIT CAPACITY WIDTH IN./OCC. LOAD 36" .2 180 P
5a
1
4
A-501
STAIR 'A' 3'-8" clear
CHECKERED STEEL PLATE TREADS & RISERS
3' - 2"
34 R @ 0' - 6 1/2"
3
3'
3 15 R @ 0' - 6 3/4" 4' - 0" DN
A-202
4' - 0"
UP
6 15
WALL ABOVE
8 .1
SHAFT
- 0"
'0"
20
'-
'-
20
0"
0"
6
2 A-100
14
SC01
6
OCC. GROUP: S-2 USE GROUP: 6
EL.+47.00
PARKING 1' - 11 1/ 2"
5a
5a
15 '0"
0"
0"
'-
'-
15
20
7
5a A.D.
5a
1
0"
EXIT CAPACITY WIDTH IN./OCC. LOAD
STAIR 'C'
36"
'-
A-200
9
1'
F
e'
E 14
'-
4
1/
D
8' - 1"
16' - 7"
J'
J
16' - 7"
8' - 3 7/8"
K
11' - 7"
L
11' - 6 1/8"
1' - 11 7/8"
0"
26' - 8 1/8"
'-
I
2"
11' - 6"
14
H
G
11
C
21
'-
0"
21
'-
10' - 0"
1 B
0"
SLOPE
A A-301
8"
1
16' - 0"
'-
E SLOP
SLOPE
2' - 0"
R.D.
R.D.
3'
PE SLO
(5) 7-TON HVAC UNITS MFG: YORK MOD3#: A-202
SLOPE
STUB UP
SLOPE
SLOPE
R.D.
24
4
2
2 5' - 0"
18
PROPERTY LINE
3
SLOPE
1 A-201
'9" 4'
- 0"
SLOPE
DUNNAGE STEEL TO BE SIZED BY STRUCTURAL ENGINEER
CORNICE
R.D. R.D. SL
OP
PE SLO
PE O SL
E
SL
E OP
4' SL O PE
9' - 4"
90째 22' 28"
- 0"
cellar
PIER DETAIL 1/2" = 1'-0"
21 '-
5
0"
ROOF 14,300 s.f.
R.D.
BUILT-UP ROOF 75% REFLECTANCE
20 '-
6
0"
PE SLO
PE O SL
15 0"
R.D.
PE SLO
20
8
'-
1
0"
A-300
METAL COPING
'-
7
PE SLO
1 A-200 20 '-
9
0"
1 SK-3 4'
- 0"
10 1' - 0"
N 2
roof
A-201
11
1'-0" TO LOT LINE
5' 6'
15
'-
7"
STAIR 'B' 3'-8" clear
SHAFT OPENING 1'
- 0"
2
- 0"
2 A-201
N
1'-0" TO LOT LINE
2 A-500
- 8"
4"
1'
11
9"
6" DIA. STORM DRAIN UP & DN
4'
10
EDGE OF 20x20 COL.
'-
STAIR C' 3'-8" clear
- 0"
UP
3'
- 0"
- 8"
1'
CAST IN PLACE CONCRETE, CONTINOUS POUR
SUBMERSIBLE SUMP PUMP IN CONCRETE PIT W/ PERFORATED COVER SIZE: 2X2
4'
6
SK-3
1'
0"
N
2'
1
- 0"
'-
2 A-201
13
VRC
- 0"
0"
0" - 0"
20
10
SHAFT OPENING DN
1
- 0" - 8" 1'
'-
'-
.3
2'
6" DIA. STORM DRAIN UP & DN
4'
6
6
PLYWOOD SHEATHING
180 P
20
20
0"
44"
.2
LOAD 147 P
5' - 10 1/4"
20
STAIR CAPACITY WIDTH IN./OCC.
90째 22' 28"
9"
1
sub-cellar
'-
- 8"
'-
4" DIA. SANITARY DRAIN UP & DN
WATER-RESISTIVE BARRIER COATING
3' 13
VRC PIT EL.43.0'
SK-3
AREA OF FUTURE BATHROOM FILED UNDER SEPERATE APPLICATION
2" EIFS
6
4" F.D.
9
8
A-300
6
1
20
0"
0"
'-
'-
20
15
1
4" DIA. SANITARY DRAIN DN
A-200
8"
9' - 4 "
9' - 4" 5' - 10 1/4"
18 PERSONS
6'
7"
84 PERSONS OCC. GROUP: S-2 USE GROUP: 6
8
'-
4'
OPEN TO BELOW
C01
UP 1
16
- 3"
COL. ABOVE
0"
0" '-
5
5'
Accesory Storage
'-
'-
A.D.
21
21
21
19
A-300
2
3' - 8"
SHAFT OPENING
5a 4'
TRIPLEX HOUSE PUMPS TO TOWER
SHAFT OPENING 6" DIA. STORM DRAIN UP & DN
A-301
7'
4" F.D. S AIN DR
A.D.
7
DUPLEX WATER FILTER
5a
180 P
GH OU TR
6
OPEN TO BELOW
DN
4'
- 3"
9"
5
SAN & STORM HOUSETRAPS TOWER OPEN HATCH FIRE PUMP & MECH RM BELOW CONTROL PANEL
TOWER MECH RM C07
5a
7'
'-
.2
EJECTOR DISCHARGE CW BFP
5"
5"
24
36"
C02
PIT EL.40.5'
SAN & STORM HOUSE SEWER DROP
3" CW DOUBLE CHECK BFP
'-
'-
8"
1' - 11 7/8"
19
19 '-
11' - 6 1/8"
CVS METER RM C06
5a
EXIT CAPACITY WIDTH IN./OCC. LOAD
L
K 11' - 7"
UP
LOAD 147 P
.3
8' - 3 7/8" 3" CW METER ASSEMBLY
5a
5a
STORAGE
9"
9"
16
3
3'
'-
'-
A.D.
2-hr FIRE RATED WALL
'-
8"
24
2
FLOOR ABOVE 5a
44"
1 '-
36" PATH OF EGRESS
19 '-2
2" 1/
-2
COL. ABOVE
WALL FOLLOWS STAIR PROFILE
6
0"
A-201
slope 1:8
34 R @ 0' - 6 1/2"
6
18
7'
A.D.
24
4
4' - 0"
'-
STAIR CAPACITY WIDTH IN./OCC.
TOWER & GAS METER RM
C03
GAS METER HVAC ROOFTOP
PROPERTY LINE
5a
19/32 "
UP
3' - 8"
3' - 8"
15 R @ 0' - 6 3/4"
6
8" 5/
21
18
5a 3 - 0"
0"
CVS GAS METER C05
CVS ELEC.&PHONE
J'
J 16' - 7" GAS METER HEATING
1
A
5a
A-202 4'
16' - 7"
5a
TWIN GAS METERS COOKING, WATER HEATERS, LAUNDRY & GAS GEN
2 A-501
2
SHAFT OPENING
6" DIA. STORM DRAIN UP & DN
1
I
8' - 1"
SAN & STORM HOUSETRAPS CVS
2"
B
16' - 0"
A-501 18
21
1
Retention Tank Room
A-201
A PROPERTY LINE
1/
5' - 10 1/4"
UP
4
10' - 0"
'-
'-
'-
C
25' - 0"
21
14
DUPLEX SUMP PUMP PIT EL.40.0'
ELECTRIC WATER HEATER
WH 3
B
DUPLEX SEWAGE EJECTOR PIT EL.40.0'
SAND INTERCEPTOR PIT EL.40.0'
LOAD 147 P
14
3' - 8"
6" '-
H
11' - 6"
GAS BOOSTER
D
TOWER ELEC FIRE PUMP MAINTAIN 3'-0" CLEARANCE AROUND PUMP
UP
21
G
1' - 4 1/8"
JOCKEY PUMP
Pump Room
0"
A.D.
C
F
e'
L
K 11' - 7"
26' - 8 1/8"
14
J' 8' - 3 7/8"
JOCKEY PUMP CONTROLLER
5a
D '-
J 16' - 7"
26' - 8 1/8"
I 16' - 7"
10' - 0"
H 8' - 1"
16 ' - 0"
G
2"
3' - 8"
1/
2' - 0"
4
6"
'-
25' - 0"
F 11' - 6"
14
4' - 0 7/8"
e' E
1'-0" TO LOT LINE
STAIR CAPACITY WIDTH IN./OCC. LOAD 44" 147 P .3
EXIT CAPACITY WIDTH IN./OCC. LOAD 36"
.2
180 P
STAIR CAPACITY WIDTH IN./OCC. LOAD 44" .3 147 P
5' 6'
A
6' - 0"
4' - 0"
19' - 0"
PARKING SC01 OCC. GROUP: S-2
PL Building Section 1 1/8" = 1'-0" SUB-CELLAR 2 37' - 0" 1
11' - 0"
10' - 3 1/2"
C01 OCC. GROUP: S-2
ELEVATOR PIT 52'INV. - 0" 47' - 9 27/32" SUB-CELLAR 47' - 0"
OPEN PORCH
2'x4' A.C.T.
OCC. GROUP: M
Accesory Storage
10' - 0" 9' - 0"
CELLAR 56' - 0"
e'
4 A-202
4' - 0"
20' - 0"
QUEENS BLVD.
20' - 0"
STEEL BEAM (TO BE SIZED BY STRUCT. ENGINEER)
ALUM. PANEL, TYP.
1st FLOOR 66' - 0"
E
ROOF MEMBRANE 75% REFLECTANCE
1 SK-02
STOREFRONT
D
10' - 0"
1 A-202
C
A-201
PL
T.O. PARAPET 90' - 0" ROOF 86' - 0"
1
B
30" MATT CONC. SLAB TO BE VERIFIED BY GEOTECH ENG.
PARKING
Room
SC01
SC92
OCC. GROUP: S-2
Pump Roo SC90
T.O. PARAPET 90' - 0"
1 A-203 4' - 0"
METAL COPING WEATHER RESISTANT BARRIER
3 5/8" METAL STUDS @ 24" O.C. W/ BATT INSULATION
5/8" FIBER CEMENT BOARD
T.O. PARAPET 90' - 0"
ROOF 86' - 0"
ROOF 86' - 0"
2" RIGID INSULATION, TAPERED ROOF 5 1/4"
ROOF 86' - 0"
T.O. PARAPET 90' - 0"
5/8" DAMP RESISTANT GYPSUM BOARD, PAINTED
5/8" DAMP RESISTANT GYPSUM BOARD, PAINTED
5/8" DAMP RESISTANT GYPSUM BOARD, PAINTED
10" CMU WALL
3 5/8" METAL STUDS @ 24" O.C. W/ BATT INSULATION
24' - 0" 10' - 3 1/2"
2'x4' ACT SYSTEM
2'x4' ACT SYSTEM
5/8" FIBER CEMENT BOARD
2'x4' ACT SYSTEM
14' - 3 1/2"
6' - 7"
2"x5" ALUM. MULLION, TYP.
2 A-203
4' - 0"
STOREFRONT DISPLAY CASE
10" CMU WALL 3 5/8" METAL STUD @ 24" O.C. W/ BATT INSULATION
3' - 8 1/2"
PAINTED ALUM. PANEL, TYP
10" CMU WALL
1st FLOOR 66' - 0"
BASE AS SCHEDULED
1st FLOOR 66' - 0"
1st FLOOR 66' - 0"
12" REINFORCED CONC. RIGID PERIMETER INSULATION EXTEND UNDER SLAB MIN. 2'-0" IN BOTH DIRECTIONS
12" REINFORCED CONC.
DRYVIT SYSTEM
CELLAR 56' - 0"
CELLAR 56' - 0"
CELLAR 56' - 0"
om ELEVATOR PIT 52' - 0"
SUB-CELLAR 2 37' - 0"
INV. 47' - 9 27/32"
ELEVATOR PIT 52' - 0"
INV. 47' - 9 27/32"
30" MATT CONC. SLAB TO BE VERIFIED BY GEOTECH ENG.
SUB-CELLAR 47' - 0"
1
Wall Section 1 3/8" = 1'-0"
SUB-CELLAR 47' - 0"
4
Wall Section 2 3/8" = 1'-0"
SUB-CELLAR 47' - 0"
3
Wall Section 4 3/8" = 1'-0"
thankyou!