PART
TWO: Empires of the Mind - Education, Research, and Commercialization:
the Building Blocks of Biotechnology
February
2007
As
featured in the January/February issue of Trade
& Industry Development Magazine
By John Rees, Junior Project
Manager, and Justin Sabrusula, Junior Project Manager
AngelouEconomics
Despite the overwhelming concentration
of the pharmaceutical and research-based biotechnology industry, many
American cities remain committed to making biotechnology an integral part
of their economies. Despite formidable obstacles, specific strategies
can increase the odds of realizing biotechnology development.
While biotechnology has traditionally
been associated with pharmaceutical and drug developments, biotechnology
has spread into many areas of the economy and increasingly affects agriculture
and industry in ways not foreseen thirty years ago. With pharmaceutical
biotechnology companies taking off in the biotech metros of the United
States, agriculture is perhaps the next sector of the economy that will
experience tremendous increases in productivity from the application of
biotechnology. Biotechnology promises to reduce planting and maintenance
costs, increase crop yields, and provide new products and sources of revenue
for struggling farmers all with plants that require less water and fertilizer,
reducing agriculture’s adverse effects on the environment.
Agricultural biotechnology applies
life sciences insight to processing of agricultural products and organic
and agricultural chemicals. This could be an enhancement of crop productivity,
resistance to disease, or a genetic modification for added human health
benefits. Nutraceuticals are the use of food or agricultural inputs to
provide health and medical benefits, including the prevention and treatment
of disease. The adoption of biotechnology in the agriculture sector is
often driven by cost factors, whereas the pharmaceutical biotechnology
industry is driven by a search for new products. Agricultural producers
consume expensive inputs like oil for farm equipment and oil-based pesticides
and fertilizers. Agricultural biotechnology not only reduces cost structures
for agricultural production while increasing yields, but also allows for
the production of some of the cheaper agricultural inputs, including bio-based
pesticides and biofuels to power farm equipment. Agricultural biotech
products include ethanol and biodiesel fuels, fertilizers and pesticides,
biodegradable plastics, sustainable oils and other lubricants, and food
additives.
Another driver of the increased
use of biotechnology is the price and quantity of water consumed by irrigated
crops like cotton, soybeans, and corn. Genetically modified crops can
generally produce similar or better yields per acre than traditional crops
while using significantly less water. This development is especially important
in agricultural areas across the Great Plains, where the Ogallala Aquifer
has seen localized drops in the water level of up to 150 feet., and in
the Southwest where the Colorado River water used for irrigation is completely
tied up in existing water rights.
Agricultural biotechnology is
driven by large agribusiness companies, including ADM, Bayer, BASF, Cargill,
ConAgra, Dow, DuPont, Monsanto, Smithfield Foods, and Syngenta. These
corporations spend hundreds of millions of dollars generating new agricultural
biotechnology, including pesticide and herbicide-resistant crops, drought-resistant
seeds, new chemicals and chemical processes, and new biofuels production
methods. Many companies focused on large-scale animal operations use biotechnology
to enhance flavor in meat or to solve waste disposal problems. Similar
to the pharmaceutical biotechnology sector, startup firms are very small
and often consist almost entirely of a talented individual and a portfolio
of patents. Startup companies’ business plans focus on commercializing
their technologies, many including new applications for bio-plastics or
enzymes for creating biofuels, and selling the technologies to the multinational
agribusiness corporations.
The agricultural sector of the
biotech industry is small in comparison with the pharmaceuticals and research,
testing, and medical laboratories sectors. The Biotechnology Industry
Organization and Battelle estimate that the agricultural feedstock and
chemicals sector of the biotechnology industry employed 104,893 employees,
a small decrease over 2001 employment. This estimate very likely undercounts
the significant agricultural biotech development not classified under
traditional chemicals and agricultural feedstock codes. While the agricultural
sector of the biotech industry is small, wages are significantly higher
than U.S. averages. The average annual wage in the agricultural biotechnology
industry in 2004 was $63,383, 62% higher than the U.S. private sector
average of $39,003, similar to other biotech sectors.
Like other sectors of the biotech
industry, economic development of an agricultural biotech industry cluster
ultimately relies on the talent available to start and staff companies.
A prime measure of the attractiveness of an area for agricultural biotechnology
is the availability of agriculture PhDs. Unlike pharmaceutical development,
where the top 10 MSAs in the country, all extremely large metropolitan
areas, not only capture the most venture capital and R&D funding but
also produce the PhDs to fuel new biotechnology startups, agricultural
biotechnology development is much more spread across the country. Education
of agricultural PhDs, however, is concentrated in small college towns
across the South and Midwest as opposed to the major metros on both coasts.
More than four out of every ten agriculture PhDs graduate from schools
in the top 10 MSAs.
All of the top 10 MSAs for doctoral
graduates in 2005 were driven by large, land-grant universities, from
North Carolina State University in Raleigh-Durham to Ohio State University
in Columbus. This presents an opportunity for regions without a large
pharmaceutical biotechnology presence to leverage their university assets
to specialize in agricultural biotechnology. The presence of these large
state universities, all with agricultural departments, focused research,
and many with additional resources in other areas of biotechnology, are
prime locations for agricultural biotechnology startups and relocations.
Site
selection for Biopharmaceutical and Agricultural Biotechnology Companies
While the presence of research
universities is a good proxy for biotechnology location, other site selection
factors always come into play in determining the best location for a company,
whether for a small startup company or a large relocating biotechnology
manufacturer. Site selection consultants are often utilized to help companies
determine the best location for a facility, and regions that understand
the process and work to build the necessary assets for biotechnology companies
will be most successful in the biotechnology arena.
AngelouEconomics employs a site
selection process comprised of seven main steps:
1. Project setup/needs assessment
2. Determine incentives strategy
3. Issue a request for proposals
4. Evaluation of top locations and sites
5. Comparisons on cost of operations
6. Short-list communities and engage in closing negotiations
7. Final selection
Step
1: Project Set-up / Needs Assessment
It is important to determine project goals, facility needs, and site
selection criteria in the initial phases of any site selection project.
Primary criteria for biotechnology firms include an available workforce
of science graduates and PhDs for research laboratories to available
land for biofuels manufacturing facilities. Companies then initiate
a 1-2 day brainstorming session regarding the scope of the project,
desired outcomes, and timeframe. These meetings include top management,
facility directors, financial executives, accounting consultants, and
site selection consultants. Often, executives have early expectations
on where their next facility or office is best suited – selections
for biotechnology are often among the top biotechnology MSAs in the
country. For most site processes, a discussion of incentives begins
here, with the site selection consultants giving an early assessment
of what incentives could be available based on similar type expansions
and relocations. The most effective site selection efforts allow 6 to
12 months for the full evaluation, negotiation, and selection of a community,
although biotechnology companies are often under pressure to complete
site selection in considerably less time.
Step
2: Determine an Incentives Strategy
Most technology companies are moving at a pace too fast to allow for
extensive exploration of incentives in their site selection decisions.
For some, incentives are often the icing on the cake, sweetening the
deal often after a decision has already been made. Emerging biotechnology
companies are generally too small to derive the benefit of financial
incentives or just don’t qualify. States seeking competitive advantages
in attracting biotechnology firms should consider incentives which can
attract small firms with fewer than 10 employees, as small firms comprise
the vast majority of the biotechnology industry. In addition, as the
largest driver of biotech firm location is availability of workforce,
regions must be prepared to provide an adequate workforce or offer significant
incentives for training a future biotech workforce for a company.
Other companies, such as pharmaceutical
manufacturers, biofuels producers, or other related sectors know just
how valuable incentives can be. New industries such as nanotechnology,
biotechnology, and fuel cells, are now caught up in a virtual “incentives
arms race” among states and communities. Biotechnology in particular
is being pursued by almost every state with significant incentives for
large-scale relocation. While the primary effect of incentives is to
remedy a prejudiced or burdensome tax system, incentives often become
a stamp of approval by communities that companies seek in their local
public relations. More than ever, incentives are cash-based, where state
and local governments commit funds to invest in infrastructure, workforce
training grants, free land, and buildings. Many states are now choosing
to deliver hard cash to a company in order to win these strategic projects
and make a marketing statement to the world.
Step
3: Issue a Request for Proposals
If a biotech company desires to pursue incentives, it is important that
its site selection representative issue a “Request for Proposals”
to a large list of communities. This ensures that a full range of options
are presented to the decision makers, and incentives negotiations can
begin. Companies should present themselves to communities in a confidential
fashion, using project code names and relying on non-staff to interact
with local representatives.
Step
4: Evaluation of Top Locations and Sites
The technology company or its site selection consultant must do thorough
research on its list of potential locations. Today, communities maintain
much of their information on an economic development website. In fact,
site selectors use the Internet to gain most of the information they
need in their evaluation before any phone calls or visits occur. Communities
should be evaluated for each of the criteria set out in Step 1: Project
Set-up. Good site selectors will devise a weighted ranking system for
all factors and rate communities on each.
For companies that require
very specific sites for new construction, such as a medical device manufacturer,
visits to a community must be conducted by an experienced engineering
or site selection team. These individuals make drive-by evaluations
of sites and typically get information from local authorities on their
acreage, topography, soil type, zoning, geotechnical conditions, utilities,
and access points. Often, the lack of sites and infrastructure may remove
a community from a site selector’s review list. Technology manufacturers
are increasingly focused on the supply of developed, “shovel-ready”
sites in communities around the U.S., thus raising the bar for corporate
recruitment. Many communities pre-certify their manufacturing site for
specific uses such as semiconductor manufacturing or automotive manufacturing.
An interesting biotechnology development is the use of former semiconductor
manufacturing sites for pharmaceutical manufacturing due to similar
site requirements and a surplus of semiconductor manufacturing facilities
in the wake of an industry restructuring several years ago.
Utility evaluations are still
important to some biotechnology firms, particularly those with sensitive
manufacturing processes or a large data center requirement. The demands
of the digital world result in the large consumption of power. Affordable,
reliable electricity is of utmost importance, particularly for manufacturers
or data centers. Biotechnology companies with large tissue databases,
sensitive laboratory equipment, or other expensive assets will almost
certainly require backup generators. Reliable telecommunications are
equally important. Site selectors will evaluate brownouts, outages due
to storms, power spikes and excess capacity for peak periods. After
the recent massive blackouts in the northeast, reliability of the electric
grid deserves greater scrutiny.
Step
5: Comparisons on cost of operations
Biotechnology firms vary in their attention to costs. Manufacturers
and large consumers of electricity do thorough evaluations of the costs
for various locations. This benchmarking analysis should cover the cost
of labor, supplier purchases, air travel among locations, real estate
costs, and tax costs. This analysis is generally done by the site selection
consultant or an in-house financial analyst. Other biotechnology firms,
especially those in the startup or small firm phase of operations will
be more concerned with access to labor and availability of research
facilities at an incubator or local university than real estate and
tax costs, as evidenced by the location of so many biotechnology firms
in the San Francisco and Boston areas, two of the highest-cost areas
in the United States. Benchmarking the final communities for a variety
of weighted scores can help determine where an operation would experience
the lowest operating costs. Numerous factors are ranked and weighted
for all areas in contention to determine which areas are best suited
for the operation.
Step
6: Short-list communities and visit them
Once the initial analysis is completed, it is necessary to visit the
short-list of candidate communities. These visits are meant to confirm
the data sent by the community, visit prospective sites or buildings,
and visit with local government, academic, and business leaders. The
community visit is the most important part of the site selection process,
and should be the determining factor in selecting a finalist city. Typically,
a company will select a primary alternative, but have one or two other
acceptable alternatives. This will allow more effective negotiations
at the end of the process. Visits should generally allow one to two
days per city in order to review thoroughly all the requirements in
the selection process.
Step
7: Final selection
The final selection of a community often rests on one or two key requirements:
the availability of a site, the availability of a significant talent
pipeline, the desire of the CEO, a marketing goal, or an incentive.
The winning city is almost certain to be the one which brought the most
comfort and enthusiasm to the CEO and the executive team. Thorough evaluations
by staff and consultants can provide strong guidance to decision makers,
but not a final decision. Once a decision is made, a company should
make every effort to maximize the publicity and exposure in the community
in order to build goodwill and begin to attract the much needed technical
talent that they will need.
Knowing the site selection process
and the driving factors behind the biotechnology industry, cities and
regions can recruit biotechnology firms with some foresight and strategy.
While history has favored a few locations, biotechnology has become slightly
less concentrated in the past decade. Cities that have created local biotechnology
development have done so by focusing their efforts on specific biotechnology
sectors. In the Midwest, for example, many smaller cities have successfully
developed agricultural-based biotechnology markets. Other regions, lacking
major universities or other major research strengths, have turned to pharmaceutical
manufacturing. By placing all of its attentions and ambition on this specific
sector of biotechnology, cities can benefit from biotechnology advances
elsewhere. Additionally, as the leading biotechnology cities are among
the most expensive places in the world to do business, there will be opportunities
for communities that offer lower cost operating environments.
For cities wishing to develop
thriving biotechnology industries, financial initiatives alone will not
suffice.
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Education, Research, and Commercialization: the Building Blocks of Biotechnology
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