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PUBLIC PROJECT
Award of Excellence
(tie)
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Woodland Park Zoo - Jaguar Exhibit
Photo courtesy of
Synergy
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Woodland Park Zoo - Jaguar
Exhibit, Seattle, Wash.
Submitted by: Synergy Construction, Seattle, Wash.
The new Jaguar Exhibit at Woodland Park Zoo provides a natural
environment for the Seattle zoo's jaguars while offering an
entertaining and educational exhibit to visitors.
The new exhibit features a 110-ft. steel and shotcrete replica
of a fallen Kapok tree, a 28 ft. by 30 ft. Kapok stump entry,
cave, waterfall, stream, and live fish pool. The project also
includes a holding building with a kitchen service area and
three interior animal dens. The waterfall, stream and pool
are fed from a new filtration building and the landscaping
includes more than 1,500 trees, shrubs and groundcover of
more than 150 species.
The new exhibit greatly improves upon the old fashioned
cage enclosure that has characterized zoos for many years.
It mimics the jaguars' natural habitat and seeks to make visitors
aware of the environmental impact our society has on the tropical
rain forest and its inhabitants.
The contractor's biggest challenge was completing a project
of this size within a fully functional zoo with visitors primarily
made up of families with small children. To ensure the safety
of visitors, deliveries and removal of large equipment and
supplies were limited to before or after normal operational
hours. In order to accomplish this without adversely affecting
the completion date, detailed and organized scheduling was
required. The next challenge facing Synergy was completing
the project on time after the owners generated a change order
approaching 25 percent of the original contract. Synergy was
able to complete this project on time through efficiency,
long hours and hard work.
"High quality construction work," noted one juror.
"Great attention to detail."
AND
PUBLIC PROJECT
Award
of Excellence (tie)
University of Washington
Medical Center Surgery Pavilion, Seattle, Wash.
Submitted by: nbbj, Seattle, Wash.
Emerging from the last available parcel of land adjacent to the University
of Washington Medical Center, the new Surgery Pavilion consolidates
and focuses all of the hospital's outpatient surgeries to
improve and streamline patient care.
The three-level facility greatly expands the number and
types of surgical procedures the UW Medical Center can offer
while allowing flexibility within the existing hospital for
future upgrades. Adding approximately 150,000 sq. ft. of ambulatory
surgery and clinic space, it includes 11 operating rooms,
54 short stay patient rooms, and endoscopy suite and five
new surgery and specialty clinics.
The structure is carefully sited to maximize the building
footprint and minimize its visual impact to the University
Rainier Vista and adjacent Montlake Boulevard. Much of the
pavilion sits below grade and the curved roof nearly disappears
behind a buffer of trees along the boulevard. The glass paneled
west side and several skylights bring and abundance of natural
light into the interior space, orienting views to Glade Park
and the existing hospital and away from the busy thoroughfare.
Two of the facility's three levels are below ground, meeting
the neighborhood's criteria for hiding the structure from
Montlake Boulevard. The extensive glass curtainwall and skylights
in turn illuminate the lower levels with abundant daylight
and counteract any sense of being underground.
Inside, a number of innovative designs make the pavilion
stand out above other similar facilities. "Universal
operating rooms" allow caregivers to treat patients in
the first available space, avoiding complex scheduling issues
and lost time. Surgical suites have "soft" boundaries
to accommodate future growth.
PUBLIC PROJECT
Honorable
Mention
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Puyallup Public Library
Photo courtesy of Lewis Architecture and Interior
Design
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Puyallup Public Library, Puyallup,
Wash.
Submitted by: Lewis Architecture and Interior Design, Bellevue,
Wash.
As the first completed component of a civic center that intends to revitalize
downtown Puyallup, the Puyallup Public Library is setting
the standard for excellence in design and construction in
the largely historic district.
The 40,000-sq.-ft., two-story steel framed structure features
brick and precast concrete facades as well as copper clad
elements. A 60 ft. clock tower marks the entry, and steel
and glass entry canopies project outward from the two public
access points to the building. A corner rotunda gives building
users a panoramic view of the century-old Pioneer Park.
The library is part of a bigger plan to make downtown Puyallup
a civic center. Lewis Architecture and Interior Design developed
a master plan for the area as a first step in siting the library.
By vacating portions of two streets, the contiguous area of
the park was increased and the library was able to border
the park rather than be separated by a street.
Designer were challenged to site the library in a way that
it would mesh with future development of several other municipal
facilities, even though at the time of design the exact nature
and program for those facilities was unknown. This challenge
was met by developing a "generic" campus plan that
provided a circulation system and a site improvement vocabulary
adaptable for a variety of future building types.
PRIVATE PROJECT
Award of Excellence (tie)
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Seattle Waterfront Marriott
Photo courtesy of
Turner
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Seattle Waterfront Marriott, Seattle,
Wash.
Submitted by: Turner Construction Co., Seattle, Wash.
Despite facing a challenging site and numerous design changes, the Seattle
Waterfront Marriott Hotel still met its original completion
date and stayed on construction budget.
The 325,000-sq.-ft., eight-story hotel features 358 guestrooms
and suites, meeting rooms, ballroom and restaurant. A one-level
parking garage is located 22 ft. below grade, 15 ft. below
the water table.
While under construction, the architect added balconies
to the project, which made for late modifications to the exterior
wall with additional sliding doors. The exterior skin then
had to be expedited, which put extra pressure on thee other
exterior components, but with close day-to-day coordination,
all systems were installed on time.
A major mechanical/elevator revision late in construction
also challenged the project team. It was discovered that the
mechanical room on the roof was larger than shown on the approved
permit drawings. This room had to be reduced in size to match
the approved drawings, which meant changing the already-ordered
elevator equipment from an overhead system to a bottom pulled
system. A new elevator machine room had to be constructed
in the basement and major pieces of mechanical equipment had
to be relocated. The project team not only pulled off the
design change so equipment was not late, but made sure all
changes in the field to accommodate the new work were implemented
immediately. Installation timing was tight, but was achieved
and the building was opened on time.
"Obviously a strong team put this structure in place,"
said one jury member. "The project adds a tremendous
amount of aesthetic value to our waterfront."
AND
PRIVATE PROJECT
Award
of Excellence (tie)
Interurban Exchange Development,
Seattle, Wash.
Submitted by: nbbj, Seattle, Wash.
The Interurban Exchange Development project is the first in a five-building
commercial plan to revitalize an area covering several city
blocks in Seattle's South Lake Union neighborhood. It creates
a new urban link to downtown Seattle, introducing a pedestrian
friendly atmosphere and making the most of the setting's existing
artistic and industrial character.
Inspired by the neighborhood's eclectic essence, materials
and forms are used to express the local culture. Instead of
a mere formal expression, the "skin" of the building
becomes the means to define contextual links. The visual and
tactile qualities of glass, rough concrete and smooth and
textured metals metaphorically accentuate the ever-present
man-made interventions prevalent in the immediate area. This
visual connection between natural and man-made materials allows
the overall development to blend seamlessly into the fabric
of the neighborhood.
The project came with its own challenges. A new offic4e
complex of this scope - 360 ft. long, 120 ft. deep and 65
ft. high - combined with the market driven desired of the
end users, does not automatically incorporate into rustic
surroundings. Satisfying both, however, the project retained
simple lines and materials to create an unpretentious "smart"
shell that accommodates a variety of businesses, including
the special needs of biotech companies. Rather than making
an iconic statement, it is distinct in its welcoming attitude
and will help to integrate tenants into the local community.
PRIVATE PROJECT
Honorable
Mention
Georgetown Headquarters, Seattle, Wash.
Submitted by: Charter Construction, Seattle, Wash.
When Charter Construction decided to go "green," it did so
in a big way: by starting with its own headquarters building.
The general contractor's new building in Seattle's Georgetown
neighborhood has achieved the Silver rating in the U.S. Green
Building Council's LEED program by incorporating a number
of environmentally friendly practices into the building's
design and construction. This was the first time Charter had
attempted a LEED project, and company leaders saw the rating
goal as an opportunity to train themselves in green building
methods.
By incorporating recycled concrete and fly ash into the
building, Charter reduced landfill impact. The office parking
lot is paved with a pervious grid filled with soil and planted
with grass to help slow and infiltrate stormwater. This also
reduces the heat island effect created by black asphalt. Much
of the material used in the building is recycled or comes
from certified forests. Water efficient fixtures were used
throughout the restrooms, including a waterless urinal.
Because the LEED program was new to Charter, employees attended
seminars and held numerous design charettes to disseminate
information and learn about the program. As a result, Charter
was able to overcome challenges associated with a new way.
PUBLIC/PRIVATE PROJECT
Award
of Excellence
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University of Washington - Paul
G. Allen Center for Computer Science and Engineering
Photo courtesy of
Mortenson
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University of Washington - Paul G.
Allen Center for Computer Science and Engineering, Seattle,
Wash.
Submitted by: Mortenson, Bellevue, Wash.
The Paul G. Allen Center on the University of Washington campus is a
concrete framed building with exposed architectural concrete
elements and structural precast features. The shell is composed
of a combination of brick veneer, architectural concrete,
aluminum windows, a zinc panel system and sunshades. The facility
houses new high-tech lab spaces, faculty and student offices,
conference rooms and a six-story atrium It will serve several
fields of computer science.
The project team was initially challenged with a lack of
funding for the project. Upon completion of site demolition,
the entire project was put on hold. The project team reviewed
multiple options in order to continue with the project utilizing
available funds. Although the project experienced a three-month
delay, the Computer Science and Engineering department was
still able to move in and set up for the fall quarter in its
new facility as originally planned.
The electrical engineering interface phase of the project
was also very challenging. This phase, which included completing
the unfinished areas of the existing facility, was required
to be started and completed over a summer quarter to avoid
disrupting classes. Long hours along with finding creative
ways to begin portions of the phase without disruption resulted
in the delivery of the space ahead of schedule.
ROAD/TRANSPORTATION PROJECT
Award
of Excellence
West Lake Union Improvements, Seattle,
Wash.
Submitted by: MidMountain Contractors, Kirkland, Wash.
The West Lake Union Improvements project has transformed an unorganized
and unpaved parking area along Lake Union's west shore into
an attractive, more accessible area that improves parking
and highlights public access to the water. The improvements
are part of Seattle Mayor Greg Nickels' vision to attract
biotech industry to the South Lake Union neighborhood
The project consists of a new drainage system, a pedestrian
pathway, an electrical duct bank and vaults for Seattle City
Light's underground feeder system, the construction of 55
striped parking stalls, arterial roadway reconstruction and
resurfacing, and landscaping.
The pre-construction condition of the parking lot consisted
of only gravel and broken asphalt and concrete. A recurring
complain from residents and business owners was the lack of
organized parking, large potholes and unsafe pedestrian access.
Upon completion, motorists and pedestrians will enjoy a freshly
paved and striped parking lot with new landscaping and an
urban walking path complete with two view decks.
One challenge crews faced during the project was the lack
of specific information on underground utilities. Because
of many years of development in the area, it was impossible
for jurisdictions to accurately represent the existing complex
infrastructure. This lead to difficulty in the design phase
of the project, which in turn provided numerous challenges
in construction. Throughout the storm system construction,
MidMountan Contractors workers were forced to continually
make adjustments to pipe runs and structures to avoid existing
utilities that could not be properly addressed during the
design phase.
RENOVATION/RESTORATION
Award
of Excellence
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Pioneer Square Historical
Areaway Reconstruction
Photo courtesy of MidMountain Contractors
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Pioneer Square Historical Areaway
Reconstruction, Seattle, Wash.
Submitted by: MidMountain Contractors, Kirkland, Wash.
A massive fire in 1889 swept through downtown Seattle, literally burning
the Pioneer Square district to the ground. Rebuilding efforts
included raising the street level to combat drainage and settlement
problems, thus creating a an underground city of sorts that
curious tourists can visit today.
Since the rebuilding in the late 1800s, the iron beams and
brick arches that supported the sidewalks over the underground
rooms and areaways have succumbed to time and Mother Nature.
In June 2002, MidMountain Contractors was awarded the federally
funded, $1.4 million job to stabilize the areaways while ensuring
that the historic district's character remained unchanged.
The original, corroded iron beams were replaced with exact
replica steel beams. These beams were placed perpendicular
under the sidewalk and connected to abutting structures. Wood
form arches were built and brick masons brought in to reconstruct
the historical-looking brick arches to support the sidewalk.
An overlay of structural rebar and concrete were installed
to finish the sidewalk construction. In all, more than 32,000
bricks were laid in a 3,600 sq. ft. restoration. To keep the
original appearance intact, three-ft. by six-ft. skylights
were installed in the sidewalk. Purple glass tiles were used
to filter light into the underground areaways.
"I respect the immense effort that must have been put
forth to maintain the project schedule and budget while preserving
the historical nature of the work," commented one jury
member.
ARCHITECTURAL DESIGN
Award
of Excellence
Wade King Student Recreation Center
at Western Washington University, Bellingham, Wash.
Submitted by: Opsis Architecture, Portland, Ore.
The new 98,000-sq.-ft. Wade King Student Recreation Center on the Western
Washington University campus serves as an anchor and gathering
place for the new south academic core of the campus. The $18
million facility nestles into a wooded hillside, capturing
dramatic views to the east across the valley towards the mountain
as well as to the track and field to the north.
The new center features a two-level weight training/fitness
center and a sport climbing wall. The natatorium, comprised
of a six-lane lap swim and leisure pool and a spa is available
for use by intramurals, sport clubs, student organizations
and the general student population. In addition, the facility
includes a three-court gymnasium with an elevated running
track, a multi-purpose activity court, locker rooms, and several
multi-purpose rooms for aerobics, martial arts, yoga and fencing.
The student center incorporates a number of green building
practices into its design, and the building's owners are pursuing
LEED certification from the U.S. Green Building Council. Sustainable
features include the recovery of 142 trees with root balls
used to enhance salmon stream habitat, the use of non-toxic
and chemically inert carpets, paints and adhesives, and energy
performance that is 20 percent better than required by the
energy code.
One juror noted "the great use of shapes and materials"
in the facility.
The student center's design is the result of a collaborative
process between students, staff, administrators and the design
team. Part of the design process included bringing students
together in a group work setting, providing "gaming"
sessions to help develop an understanding of priorities and
trade-offs in the programming and design process.
ARCHITECTURAL DESIGN
Honorable
Mention
University of Washington - Paul G. Allen
Center for Computer Science and Engineering, Seattle, Wash.
Submitted by: Mortenson, Bellevue,
Wash.
The new Paul G. Allen Center for Computer Science and Engineering
on the University of Washington Campus fulfills the needs
of the Computer Science and Electrical Engineering departments
with new high-tech lab spaces, faculty and graduate student
offices and conference rooms.
A unique design aspect of the center is its six-story atrium.
The space, which was designed to be used as a student commons
and for special events, features a precast walkway system
connecting the building occupants and the adjoining electrical
engineering building to the atrium on all floors. A large
cantilevered feature stair circulates individuals from floor
to floor inside the atrium without taking up space on the
main floor. Acoustic cherry wood panels coordinated with exposed
architectural concrete and metal panels create a warm space
and enhance the acoustics for music venues.
The use of clerestories and the atrium allow ample light
into the building. The occupants on the eastern side of the
building enjoy views of Lake Washington, Husky Stadium and
Mount Rainier. Facing south, occupants can see historic Sylvan
Grove, and to the north, the atrium.
Energy conservation was maximized through the use of motion
sensors, energy efficient transformers and fan powered air
terminals.
ENGINEERING DESIGN
Award
of Excellence
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Rocky Reach Dam Juvenile
Fish Bypass Project
Photo courtesy of Coffman
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Rocky Reach Dam Juvenile Fish Bypass Project,
Wenatchee, Wash.
Submitted by: Coffman Engineers,
Spokane, Wash.
The Rocky Reach Dam Juvenile Fish Bypass project provides
an innovative way for young salmon to negotiate downstream
around the Rocky Reach Hydroelectric Project.
The bypass includes two main components. The first is a
surface collector system, which utilizes 29 large pumps to
create strong water currents that appeal to the natural instincts
of the young fish and attracts them to the dam's forebay.
Previous sonar and flow studies had determined that fish prefer
to travel in the upper 60 ft. of river depth. The surface
collector system creates currents in the upper 60 ft. of the
river flow by using natural and turbine-induced surface currents.
This flow offers the fish an alternative to diving into the
electricity-generating turbine intakes where mortality rates
are high.
Once the fish are in the surface collector, the water flow
moves them into the second part of the system - a large steel
tube up to nine ft. in dia. The tube passes through the forebay
wall of the dam and extends 4,600 ft. around the tailrace
and the face of the spillway. The fish pass through a sampling
facility and re-enter the rive one-third mile downstream.
Construction of the system was carefully planned so all
work in the river would be done between fish migration seasons.
Some of the large components of the collector system, such
as the pump house, were built on a peninsula upriver from
the dam during the summer and then floated into place on barges
when the fish migration season had ended for the winter. Due
to the challenging schedule, construction continued around
the clock through the winter.
TENANT IMPROVEMENT
Award
of Excellence
Graham and Dunn Law Firm, Seattle,
Wash.
Submitted by: Turner Construction Co., Seattle, Wash.
The 55,000-sq.-ft tenant improvement project for Seattle's
Graham and Dunn law firm brought the company to a vibrant
new space on the far end of Pier 70 over Elliott Bay.
The project scope included construction of an internal stair,
several new conference rooms, a kitchen, locker room and offices.
Some of the unique finishes include stone, Douglas fir flooring,
rift cut walnut cabinets, art glass and carpet. The lobby
and conference areas consist of a two-story space open to
the structure with views overlooking Elliott Bay. Because
most of the ceiling areas are open, distribution of mechanical
and electrical systems required extensive coordination with
the wood structure of the pier.
In order to maximize the views from the third floor, the
north and south clerestory roofs were raised approximately
18 inches. To accomplish this, Turner crews cut the roof along
a beam line approximately eight inches from the perimeter
and used it a s a pivot point to create what was essentially
a shed dormer along both sides of the pier. New exterior walls,
taller windows and additional structural support were added
to finish the look.
"A challenging building to move into," noted one
juror. "I liked the fact that they raised the roof to
let in light."
TENANT IMPROVEMENT
Honrable
Mention
Puget Sound Energy - Summit Building,
Floors 8-12, Bellevue, Wash.
Submitted by: Lydig Construction, Bellevue, Wash.
The tenant improvement project for Puget Sound Energy occupied
116,000 sq. ft. on five floors of the Bentall Summit Building
in downtown Bellevue, Wash.
Four of the floors are similar in nature and aesthetics
as they function as large, open office areas. Meeting rooms,
private offices, copy centers and special purpose rooms are
clustered in the center of the floor integrated within the
building core.
An architectural signature in the space is an interior steel
stair with granite treads, perforated stainless steel riser
panels, stainless steel handrails and a wood cap connecting
three floors. Lydig crews were challenged to coordinate the
delivery, fabrication and assembly of the stair. Stair stringers
and guardrail parts were fabricated in sections as large as
possible in the shop top minimize on-site welding. The longest
pieces were fed through the hatch in the elevator car ceiling
and moved to the floors with the help of two elevator techs
- one on top of the car and one operating the car from the
inside. Once the stair parts were delivered to the floors,
crews still had considerable assembly work to perform. While
the stair parts were sandblasted prior to their delivery to
the site, further sandblasting was needed to prepare the metal
for finishing. Crews tented the stair on three floors and
ran air hoses up a building stair to clean up welds and imperfections.
ELECTRICAL PROJECT
Award of Excellence
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Seattle City Hall
Photo courtesy of Bohlin Cywinski Jackson
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Seattle City Hall, Seattle, Wash.
Submitted by: Sparling, Seattle, Wash.
The new Seattle City Hall's power, telecommunications, audiovisual,
security and lighting control systems feature an integrated
design that speaks to innovation throughout the structure.
The design solutions responded to the challenges of integrating
multiple systems, achieving U.S Green Building Council LEED
certification and reducing operational costs.
The National Electric Code requires that high-rise buildings
have a surplus of generator capacity to support the fire and
smoke removal pumps. Sparling recommended capturing that surplus
generator capacity to support mechanical air systems, lighting,
receptacles and telecommunications equipment feeding the council
chamber, boards and commissioning conference rooms, public
reception space and Seattle Channel broadcasting services
in a non-fire related emergency. Since the generator backs
up Seattle Channel broadcasting equipment, there is now functionality
to support live broadcasts in the event of a major crisis.
As the city was planning to find and build an alternate site
to perform this function, Sparling's approach saved them millions
of dollars.
Sparling also wrote an original specification to support
the modular, under-floor wiring system for power and telecommunications
cabling. Doing so greatly reduces the size of on-floor HVAC
electrical loads.
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