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| Accomplishments
with Impact since 1880 |
It all started with seven people and a few buildings . . .
The New York State Agricultural Experiment Station at Geneva was
established by an act of the state legislature in 1880 "to
promote agriculture in New York through scientific investigations." The
doors officially opened on March 1, 1882.
In its earliest days, Station researchers concentrated on dairy,
beef cattle, swine, horticulture and the evaluation of varieties
of vegetables, fruit and field crops. Still later, bacteriology,
dairy science and chemistry were added.
The Station became part of Cornell University's College of Agriculture
in 1923. All research on animals was moved to Ithaca at the end
of WWII.
Today, researchers concentrate on all activities related to fruits
and vegetables "from the farm to the fork"-from molecular
science to value-added food processing.
The Station is internationally recognized for the contributions
it has made over the years. Research and extension are conducted
on more than 800 acres of land by 46 faculty members, 70 graduate
students, and 230 staff. Two associated labs in Highland and Portland,
NY, are involved in the statewide effort.
Vision
The New York State Agricultural Experiment Station advances a sustainable
plant agriculture and food system through state-of-the-art research
and extension programs that address state and worldwide needs.
Scientists at the station:
- Improve human health.
- Protect crops and the environment.
- Fuel economic development
- Geneva supports New York's agricultural and food industries
with research, extension and education programs. Geneva:
- Uses the best-suited scientific tools and systems
to solve both fundamental and applied scientific questions pertaining to plant
agriculture and food science;
- Improves the competitiveness and profitability
of growers and processors of fruit and vegetable crops, turf, and
other expanding horticultural industries;
- Develops biologically and environmentally sound
practices to produce, protect, and process horticultural crops
and commodities;
- Develops and implement technologies to ensure
the wholesomeness of foods;
- Serves the diverse clientele of the state and
support emerging opportunities to enhance and expand plant-based
agriculture and food systems;
- Helps create, attract, and retain agricultural, food,
and biotechnology enterprises within New York.
Prior to 1900
More than 1,000 varieties of vegetable and field crops were evaluated
from 1883 to 1885 and sound recommendations made to New York
growers (Sturtevant)-a practice that continues to this day. |
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To ensure the quality of agricultural products
for New York growers, regulatory analyses of feeds and fertilizers
were developed (Van Slyke), as well as a chemical analysis laboratory
that evaluated the quality of fertilizers, feeds, soils, milk and
water. Here, fertilizer samples are drawn to be sent to the Station
for analysis. |
Using the Station's dairy herd, the
chemical composition of milk and butter was investigated, and the
Babcock method developed as a rapid test for fat in milk-a process
still used today (Babcock).
1901-1940
Then as now, scientists explain ongoing work to growers, government
officials and visitors during field days, twilight meetings,
fruit schools, farm tours and other meetings.
A process for cream cheese production was developed at Geneva that
doubled the production of cream cheese in New York the following
year (Dahlberg). The need for blanching of frozen foods and the documentation of
their nutritive value led to the development of the frozen fruit
and vegetable industry (Tressler). |
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The nation's first seed testing lab was
established at the Station in 1912, when the NYS legislature passed
the Seed Act. As Station director Sturtevant said at the time, "Without
good seeds, there can be no good crops." Today, the lab conducts
more than 10,000 tests annually on a wide range of species. New technologies
are continually being developed and used. |
| Studies on the micro-organisms that spoil
catsup, tomato sauce, and other tomato products led to changes in
the recommendations for the formulations involving salt, sugar, and
vinegar. These changes improved the shelf stability of acidic foods
(Pederson). |
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Seven volumes of Fruits of New York were
published from 1905-1928 (Beach and Hedrick), and four volumes of
Vegetables of New York were published from 1928-1937 (Hedrick and
others). Today, these books are collectors' items-still valuable
for the accuracy and quality of the color prints, and extensively
used as reference. |
1941-1960
Since its founding, Station scientists have released over 245 varieties of fruit.
Fruit quality for fresh and processed products, insect and disease resistance,
tolerance to cold weather, productivity, and growth habit are just some of
the attributes being improved. |
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Empire is the most successful of the 64
apple varieties, followed by Cortland, Jonagold, Macoun, and Jonamac.
The Heritage raspberry, Cayuga White wine grape, Stanley plum and
Jewel strawberry (pictured here) are also world-renowned. |
Use of dwarfing rootstocks and the establishment
of high-density apple orchards have helped growers increase profits
and yields per acre (Apple Rootstock Breeding Program).
The relationship between chemical constitution and insecticidal
efficiency was established for oil sprays. This led to the development
of sprays to control insects and mites-technology that is still
in use today (Chapman, Avens, Pearce). |
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A pea grading system still in practice
today was developed, and the need for crop rotation for peas and
tomatoes documented (Sayre). |
| Four Station scientists were among the
founding members of the Institute of Food Technologists, the professional
organization for food scientists (Hucker, Pederson, Kertesz, Tressler).
The IFT is the principal organization of food scientists whose present
membership is more than 30,000. |
| 1961-1995 |
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The gene gun was developed by researchers
at Cornell in Geneva (Sanford (pictured here), Klein) and Ithaca
(Wolfe, Allen). The process of injecting genes into plant tissue
has revolutionized genetic engineering in many fields and streamlined
plant breeding. The process can accelerate the development of superior
crop varieties. The technology is also used in medicine. |
| Among many innovations for tomatoes, the
Red Top tomato was developed (the first tomato variety that could
be machine harvested), verticillium resistance in tomato was studied
(Tapley), and a tomato hot- break processor designed to make tomato
juice |
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Fundamental discoveries about the identification
and synthesis of sex attractants from more than 100 insect pests
and the use of these attractants in integrated pest management programs (Roelofs,
et al.), earned Wendell Roelofs (pictured here) the Wolf Prize and
the National Medal of Science. The current entomology department
chair was also inducted into the National Academy of Sciences. |
| A strain of beneficial fungus in the genus
Trichoderma was developed and is being utilized as a biological control
agent for a wide range of plant diseases (Harman et al.). It also
increases root development, which frequently results in improved
plant growth and productivity. |
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Nelson Shaulis (pictured here on the left)
developed the Geneva Double Curtain system for trellising grapes.
It increases yields by at least 50%, and has been adopted worldwide.
Mechanized pruning, shoot positioning, and crop-load control has
also had a major influence on the grape industry worldwide (Pool
and Shaulis). |
Vegetable germplasm is continually being
improved at Geneva. Among the developments: a low-water, Hi-Dri cabbage
for processing sauerkraut (Dickson, Stamer); multiple virus-resistant
beans (Dickson); and virus resistant crucifers and lettuce (Robinson
and Provvidenti).
Subsequent generations of a mechanical harvester for grapes originally
developed at Geneva help keep New York competitive with other grape-producing
regions (Shaulis, Shepherson, Millier, and Moyer). |
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Since 1973, the development of the Integrated
Pest Management (IPM) program headquartered at Geneva has resulted
in a 30-80% reduction in the use of pesticides on crops in New York.
Pest forecasting, insect monitoring, action thresholds, and biological
controls have led to more effective and economical control of diseases,
weeds, insects, and mites of fruits, vegetables, ornamentals, and
turf. New York's IPM program is a leader in the national IPM movement. |
| In 1978, at the urging of New York state
wineries, food scientists at Geneva helped organize the first-ever
statewide competition of commercial New York State wines and oversaw
the judging at the New York State Fair. Fifteen NYS wineries entered
a total of 79 wines in the competition. (Robinson, Lee) |
| 1996-2003 |
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Plant pathologist Dennis Gonsalves (pictured
here) engineered the first virus-resistant perennial fruit crop to
be released to growers. The technology saved the papaya industry
in Hawaii. For his work, Dr. Gonsalves received the Von Humboldt
Award in 2002. |
| A team of entomologists led
by Jan Nyrop, released the predator mite Typhlodromus pyri in
orchards throughout the Northeast to provide biological control of
a pesky apple pest called the European red mite. |
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Developing and evaluating a model system
for managing crops in which the Bt gene has been inserted reduces
the likelihood of insects developing resistance to Bt in crops like
corn and cotton (Shelton et al.). |
The Wine Research and Extension Program
and a Wine Analysis Lab were initiated at the Station to support
the more than 200 New York wineries established after the passage
of the 1976 Farm Winery Act. (Food Science & Technology Dept.) The first-ever interspecies surgical transplant was performed
between two species of moths-the tobacco budworm and the corn earworm.
The work helps scientists like Wendell Roelofs, Charlie Linn, and
Kathy Poole at Geneva and the National Institutes of Health better
understand how the brain processes the sense of smell. |
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A new Vinification & Brewing Technology
Laboratory was opened at the Station in 2000. The laboratory supports
the development of brewing, wine and equipment supply businesses
through innovative science and technology, and is partially funded
by industry. |
| Food scientists at Geneva have developed
many new technologies to improve food and beverage processing. One
allows canned vegetables to have substantially firmer texture (Bourne);
another contributes to shelf-life stability in apples (Hrazdina);
ultrafiltration stabilizes honey so it can be used in mead and fruit
wines (Lee, McLellan, Kime). |
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By collecting wild apple seeds on trips
to the centers of origin for apple in Central Asia, Turkey, China
and the Russian Caucasus mountains, scientists at the Station and
the USDA-ARS Plant Genetics Resources Unit at Geneva maintain genetic
diversity that has evolved through natural selection over thousands
of years. Fruit breeders all over the world have access to the germplasm
in breeding for improved disease and insect resistance, flavor, hardiness,
and yield. (Forsline and Aldwinckle) |
| Various tree training systems
like Slender Spindle, Vertical Axis and Y-Trellis developed at Geneva
and tested in the field with commercial grower-cooperators, optimize
yield, fruit quality and profitability for apple farmers (T. Robinson). |
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At the Food Venture Center, a team of food
scientists provides comprehensive assistance to beginning and established
food entrepreneurs in getting value-added food products to market
in the Northeast. When the program was funded by a $3.8M grant from
the USDA's Fund for Rural America, cooperators included specialists
at the University of Vermont. (Padilla-Zakour) |
2004 & beyond...
Microbiologists at Geneva have discovered a bacteriocin, a protein
produced naturally by bacteria, capable of killing a large majority
of Salmonella, Shigella and E. Coli O157:H7 bacteria that cause
foodborne illnesses. The bacteria that produces the protein is
harmless and commonly found in the environment. The bacteriocin
has the potential to help prevent food sickness and enhance food
safety. It has potential as a new antibiotic to help fight
bacterial infections in hospitals and surgery. |
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Scientists are probing further into insects'
chemical recognition systems for clues that may enhance insect control
in the future. Recent groundbreaking work by Geneva scientists has
shown that dramatic and sudden shifts in pheromone blends are possible
within insect populations. This work has changed the way scientists
think about the evolution of these blends, and raises new possibilities
for the use of pheromones as a control strategy. At the same time,
behavioral studies have demonstrated that fruit odor is one of the
primary signals insects use to recognize host plants. Particular
components of non-host-fruit odors actually act as antagonists, opening
the door on a whole new approach to environmentally-friendly methods
of insect control. |
| Insect pheromones are being introduced
around the country as an environmentally benign method of pest control,
in part because of research at Geneva. Much work goes into identifying
and isolating the appropriate compounds, but collecting or producing
pheromones on a large scale has proven difficult, and synthetic pheromones
are still expensive. Scientists at Geneva have isolated and cloned
the genes that code for pheromone production. Their progress has
cleared the way for the development of inexpensive, large-scale production
of pheromones, such as could be achieved with yeasts in conventional
fermentor-based technologies, giving researchers a potential new
source of environmentally-neutral insect control. |
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As co-principle investigators in the Nanobiotechnology
Center, Geneva scientists are bringing the emerging tools of nanotechnology
- building structures that are measured in billionths of a meter-to
bear on agricultural research. The national Nanobiotechnology Center
is being developed on Cornell's main campus under funding from the
National Science Foundation. The fusion of nanotechnology and biological
research is giving scientists at Geneva a whole new set of tools
and unprecedented control over their investigations of the sub-cellular
world. (Hoch) |
Through the Cornell Agricultural and Food Technology Park, the
Experiment Station is forging links with local and national research
and development companies. In addition to promoting the economic
development of the region by bringing in companies and jobs, the
Park will foster the expansion of agriculture, food science, and
biobased technologies. Links between Cornell research, extension,
and industry will speed the transfer of future research into the
private sector.
Each year, a number of Cornell scientists participate in or chair
grant panels for the United States Department of Agriculture, the
National Science Foundation, and various other state and federal
funding sources. These panels are charged with assessing research
projects and distributing millions of dollars among hundreds of
applicants. Grant panels are the primary means by which funding
is allocated for research across the country. In their role on
these panels, Geneva researchers play a key role in influencing
the direction of future research throughout the country.
Future...
Faculty and staff at Geneva work directly with growers in
labs and fields. Many also work directly with growers and producers
through Cornell Cooperative Extension. As a result, they have become
highly attuned to the needs of modern food and agriculture, and always
work toward applying the technologies they develop. Researchers at
Geneva are also making discoveries in the pure sciences, developing
the fundamental knowledge that lays the groundwork for future research
and development.

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