Roger
B.
Gatewood
Wing
Mechanical
Engineering
at
Purdue
The
School
of
Mechanical
Engineering
was
founded
in
1882
and
currently
consists
of
more
than
12,500
undergraduate
and
graduate
students.
Purdue’s
Mechanical
Engineering
undergraduate
program
is
currently
ranked
seventh
in
the
nation.
Roger
B.
Gatewood
was
a
1968
graduate
who
gave
the
key
leadership
gift
to
the
school
of
Mechanical
Engineering
to
support
the
new
learning
and
research
facilities
in
2003.
He
has
made
an
additional
gift
by
funding
the
design
and
construction
cost
to
qualify
the
building
to
seek
Leadership
in
Energy
and
Environmental
Design
(LEED).
The
new
Gatewood
wing
will
be
Purdue
University’s
first
LEED
certified
building.
The
Gatewood
wing
represents
a
new
green
generation
of
architecture
which
has
made
a
significant
impact
towards
Purdue
University’s
sustainability.
The
new
wing
alone
will
be
saving
over
$20,000
in
annual
energy
costs.
The
Gatewood
Wing
In
honor
of
Mechanical
Engineering
being
Purdue's
first
engineering
discipline,
within
the
new
Gatewood
wing,
Dr.
Milton
B.
Hollander
atrium
will
showcase
the
clock
from
the
original
Heavilon
Hall
which
was
the
first
Mechanical
Engineering
building
on
campus.
The
atrium
will
display
student
projects
and
serve
as
a
venue
for
student
design
competitions
and
recruiting
events.
The
new
wing
will
also
consist
of:
A
Prototype
Engineering
And
Realization
Lab
(PEARL)
Robert
L.
and
Catherine
R.
Orth
student
Commons
Herbert
A.
and
Janice
Wilson
student
Commons
Faculty
and
graduate
student
offices
Research
and
teaching
laboratories
120
–
seat
classroom
Rendering
of
the
Gatewood
Wing
Building
Consumption:
Facts
Buildings
consume
40%
of
the
US
energy
supply.
12%
water
use,
30%
greenhouse
gases,
65%
waste
outputs,
70%
electricity
consumption.
Green
buildings:
30%
lower
energy
use,
30‐50%
lower
water
use,
50‐90%
lower
waste
consumption.
The
Gatewood
Wing
Team
Green
Monster
Purdue
University
What
is
LEED?
Developed
by
the
U.S.
Green
Building
Council
(USGBC),
LEED
provides
building
owners
and
operators
a
concise
framework
for
identifying
and
implementing
practical
and
measurable
green
building
design,
construction,
operations
and
maintenance
solutions.
USGBC
will
not
complete
their
grading
until
2011
after
construction.
The
initial
target
was
to
obtain
LEED
certification
and
it
is
currently
on
target
to
achieve
LEED
gold
rating
of
which
39
to
51
points
earn
a
gold
rating.
LEED
puts
a
premium
on
constructing
buildings
with
superior
interior
air
quality,
access
to
views,
daylight
and
natural
ventilation.
Building
occupants
benefit
from
a
healthier,
more
pleasant
interior
environment.
Innovation
&
Design
Process:
LEED
by
Example
To
provide
design
teams
and
projects
the
opportunity
to
be
awarded
points
for
exceptional
performance
above
the
requirements
set
by
the
LEED
for
new
construction
green
building
rating
system
and/or
innovative
performance
in
green
building
categories.
15%
reduction
in
operating
costs
via
UVC
emitters
on
coils
and
drain
pans
Low‐flow
plumbing
fixtures
A
real
time
energy
dashboard
in
the
atrium
and
available
via
web.
Sustainable
Sites:
Reduce
pollution
from
construction
activities
by
controlling
soil
erosion,
waterway
sedimentation
and
airborne
dust
generation.
Alternative
transportation:
Boiler
ride,
city
bus
Heat
Island
reduction
:
Solar
Reflectance
Index
(SRI)
exceeds
expectations
by
25%
Water
Efficiency:
Limit
the
use
of
potable
water,
or
other
natural
surface
or
subsurface
water
resources
available
on
or
near
the
project
site
for
landscape
irrigation.
42.7%
water
use
reduction
More
than
145,000
gallons
saved
annually
Energy
&
Atmosphere:
Verify
that
the
building’s
energy
related
systems
are
installed,
calibrated
and
performed
according
to
the
project
requirements,
basis
of
design,
and
construction
documents.
46%
less
electricity
used
22.6%
energy
cost
savings
Indoor
Environmental
Quality:
Establish
minimum
Indoor
Air
Quality
(IAQ)
performance
to
enhance
air
quality
within
buildings,
thus
contributing
to
the
comfort
and
well‐being
of
the
occupants.
92%
of
Workstations
equipped
with
task
lights
Energy
performance
is
optimized
during
design
through
simulated
energy
modeling,
variable
volume
mechanical
systems,
demand
controlled
ventilation,
energy
efficient
lighting
and
controls,
and
heat
reclaim
coils
which
capture
waste
energy
from
exhaust
and
reclaim
it
to
condition
outside
air.
Measurement
and
verification
of
energy
usage
will
enable
Purdue
University
to
continue
to
track
and
optimize
energy
use
over
time.
Materials
&
Resources:
Facilitate
the
reduction
of
waste
generated
by
building
occupants
that
is
hauled
to
and
disposed
of
to
landfills.
Recyclable
coverage
exceeds
basic
requirements
Team
Green
Monster
Purdue
University