| Super Science Three
New Research Buildings Materialize on U of A Campus By
Scott Blair
The University of Arizona is greatly expanding its research
and laboratory facilities with three new projects: The Thomas W. Keating Bioresearch
Building, the Medical Research Building, and the Chemistry Building
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The University of Arizona in Tucson is going through
a major expansion phase of its medical and scientific research facilities. Expansion
of the Meinel Optical Sciences Building is nearing completion, as is the Roy P.
Drachman Hall, which will provide academic space for the pharmacy, public health
and nursing departments.
At the same time, three capital improvement projects
totaling more than $150 million are poised to provide the school with even more
scientific research and laboratory space.
The $46.1 million Chemistry Building
will be wedged into an extremely tight space in the middle of the campus. The
$65.7 million Thomas W. Keating Bioresearch Building and the $54.4 million Medical
Research Building are challenging builders on the north side of campus with a
project connecting two massive buildings under construction at the same time by
two separate general contractors, right next door to another large-scale construction
project.
All three projects were designed by the Los Angeles, Calif. architecture
firm Zimmer Gunsul Frasca Partnership. Chemistry Building The
new 85,000-sq.-ft. facility will consolidate the chemistry instruction and research
programs into one central location. The existing chemistry building will remain,
providing additional space for the department.
The project site produced
several challenges. "The building straddles the campus tunnel system, which
carries steam, water and telecommunications," said Brian Brown, project manager
on both the Chemistry Building and the Medical Research Building for construction
manager at risk Hensel Phelps Construction Co., which has recently opened a Tucson
office due to the volume of work. "Before we could really start construction
on the building, we had to relocate a lot of utilities from the tunnels, and also
reinforce them so that we could drive construction equipment over the top of them."
The
building's basement is tucked between these tunnels, and covers around 30 percent
of the building's footprint, Brown said.
The site is also located in a
very congested area of campus. "Because the site was tight on real estate
and they were surrounded on four sides by other buildings, the coordination of
the project has been very critical," said Steve Grauer, operations manager
for Hensel Phelps. "The building has two bridges that connect to
other research buildings, so there will be more campus interaction," Brown
said. "They've created a mall area, what they call Magic Alley, with 100
year-old trees that line the north side of the building and create a nice interaction
space for the science community."
"We recognized early on that
this building would primarily be seen as a backdrop to the open spaces created
by it," said Dusty Rhoads, AIA, partner with architect Zimmer Gunsul Frasca.
"We turned the challenge of a tight site into a virtue, by letting each side
of the building respond to its orientation and surroundings."
The
eastern end of the building is clad in corrugated copper and is a backdrop to
a new landscaped piazza. On the side facing Magic Alley, the building elevation
is a glass curtain wall that offers views out to the alley yet reflects the landscaping.
Offices were placed along this side of the building to take advantage of the view.
"To the south, the only side of the building that can be seen in
the campus context, we used brick," Rhoads said. "But with a rich three-dimensional
patterning that gives the façade its own identity and at the same time
ties it back to the traditional vocabulary of the campus."
In addition,
small square windows punch out of the brick in a regular but infrequent pattern.
Inside, a long hallway is pierced with the occasional shaft of light from the
windows, which occur both unusually high and low on the hallway's wall.
With
the new structure, the first order of business was meeting the programmatic needs
of the user group, according to Rhoads. "When designing lab buildings, there
is greater emphasis on the mechanical systems. We must design for the current
science, yet make the building flexible enough to adapt to changes in the field.
We really have to be sensitive to the building's infrastructure."
"It's
gratifying to be getting the user group what they have needed for over a decade,"
Brown said. "They have been waiting for this building for many years, so
there is going to be a lot of very happy people." Thomas
W. Keating Bioresearch Building The 177,000-sq.-ft. Keating Building will
be home to the Bio5 Institute which brings together groups of researchers, faculty
and graduate level students for the College of Science, the College of Agriculture
and Life Sciences, the College of Medicine, the College of Pharmacy and the College
of Engineering and Mines into a single facility intended to foster interaction
and collaboration.
"This combined expertise for disciplines from
diverse areas and normally housed separately will spark ideas and solutions that
might not otherwise develop," said Bill Vos, project manager for both Keating
and the Medical Research Building for the University of Arizona.
"The
building design will also recognize the emergence of a new type of academic scientist,
whose role it is to advance the technological cutting edge and who will make that
technology available across campus."
Since the project is intended
to be part of a new core of research buildings, it is interconnected with the
Medical Research Building on each of its five levels.
"This was done
to maximize space, reduce development cost, and eliminate redundant functions,"
Vos said. "Both projects were programmed to share as many resources as possible
including the vivarium, exterior courtyard space with a large steel shade structure,
loading dock facilities and utility infrastructure enhancements." "Since
the primary building material on campus is brick, we used that as our base material
on the campus faces of the building," Rhoads said. "In the courtyard
we introduced Indian red sandstone as a new material, as well as copper and glass
to break down the scale of the buildings, provide visual interest and respond
to the desert climate."
The south side of the building features unique
angled windows that pop out of the wall's surface. Romanoski Glass of Tucson,
Ariz. was the glazing contractor on the project.
"Stainless steel
sunscreens jut out above each window and help break up the shape of the building
so it isn't just one big box," said John Clays, project manager for the Tucson
office of construction manager at risk Gilbane Building Co. "This building
has some of the nicest exterior finishes of any that I've worked on."
The
windows added complexity to the project. "There were so many pieces involved
- 25 in total for each of the angled window sections," Clays said. "Before
the first piece went in you had to measure everything perfectly, you couldn't
go half way and then realize it doesn't fit. It took a lot of coordination."
The east and south sides of the building house laboratory space on every
floor, taking advantage of these windows. "The office side of the building
is structural steel, but since the labs have a stiffer structural requirement,
we used a cast-in-place concrete frame to provide acoustical and vibration control,"
Clays said.
Able Steel Fabricators, Inc. of Mesa, Ariz. provided the structural
steel for both Keating and the Medical Research Building. "The steel package
included 64-ft. radiused pipe frames that enclose the stairways," said Mark
Fultz, operations manager with Able Steel. "In addition, they were galvanized,
so we had to fabricate them in short enough sections to fit them in the dip tank
and then weld them together afterwards."
The building used over 600
tons of structural steel.
A vivarium will be located in the 56,000-sq.-ft.
basement. Even though steam and chilled water is provided by the University's
central plant, the wet laboratories and vivarium required a tremendous amount
of mechanical piping and ductwork. "The basement contains some of the most
complex MEP work I've ever seen - it might look like spaghetti, but it was all
efficiently designed using 3D imaging software" Clays said. Medical
Research Building The 135,000-sq.-ft. Medical Research
Building will bring together scientists and physician researchers at U of A who
share an interest in translational research to advance the understanding of the
molecular basis of human health, aging and disease.
"MRB will complement
and foster interaction with the genomics and proteomics research programs planned
for the Keating Building," Vos said. Both buildings have been designed
with highly flexible, interdisciplinary research space configured with large open-plan
laboratories, dedicated laboratory support space, faculty offices, open-plan graduate
student workstations and conference space.
The two buildings are connected
in a different style on each floor, from a narrow hallway in the basement to a
wide expanse containing work stations on the upper stories.
The structure
also utilizes cast-in-place concrete for the lab areas and structural steel for
the offices. "The concrete frame is clad in brick, so it's like having two
exterior skins," Brown said.
Since the building will eventually be
part of a new precinct of medical research buildings on the campus, new design
precedents could be created, according to Rhoads. "We took great care not
only in the building designs, but also in the development of the open spaces around
the buildings," Rhoads said. "We created a hierarchy of spaces from
the large courtyard to smaller gardens to outdoor garden terraces at each level
of the buildings."
One of the most striking features of the courtyard
is a 300-ft. long, 87-ft. tall steel shade structure called the Keating Ramada.
T.A. Caid Industries of Tucson was contracted to fabricate and install the truss
superstructure and stainless steel mesh louvers.
"The ramada creates
a functional and aesthetically pleasing response to the Arizona summer heat,"
said Kyle Peyton, PE, vice president of business development for T.A. Caid. "We
fabricated and pre-painted the entire superstructure prior to beginning field
erection, allowing for maximum flexibility in shipping, sequence and schedule."
The structure consists of 12 major trusses up to 180-ft. long and 24-ft.
deep, weighing 40,000-lbs. each.
"There are 240 4-ft. wide by up
to 37-ft. long stainless steel mesh panels, which are stretched between 3/8-in.
stainless steel cables creating the shade ramada," Peyton said. "They
are 50 percent open and resemble chain mail, and are oriented like louvers with
the low side to the south assuring maximum sun blockage while allowing breezes
to pass between the panels."
The Medical Research Building is scheduled
for completion in early Summer 2006.
The Keating and Chemistry buildings
are due for completion in late Spring 2006.
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