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<strong>Whistle</strong> <strong>Stop</strong> V<br />
AUGUST 11-12, 2010<br />
INVESTOR EVENT<br />
Water Utilization Learning Center<br />
®
Forward-Looking Statements<br />
Certain statements contained in this presentation are "forward-looking<br />
statements," such as statements concerning the company's anticipated<br />
financial results, current and future product performance, regulatory<br />
approvals, business and financial plans and other non-historical facts.<br />
These statements are based on current expectations and currently<br />
available information. However, since these statements are based on<br />
factors that involve risks and uncertainties, the company's actual<br />
performance and results may differ materially from those described or<br />
implied by such forward-looking statements. Factors that could cause or<br />
contribute to such differences include, among others: continued<br />
competition in seeds, traits and agricultural chemicals; the company's<br />
exposure to various contingencies, including those related to intellectual<br />
property protection, regulatory compliance and the speed with which<br />
approvals are received, and public acceptance of biotechnology products;<br />
the success of the company's research and development activities; the<br />
outcomes of major lawsuits; developments related to foreign currencies<br />
and economies; successful operation of recent acquisitions; fluctuations<br />
in commodity prices; compliance with regulations affecting our<br />
manufacturing; the accuracy of the company's estimates related to<br />
distribution inventory levels; the company's ability to fund its short-term<br />
financing needs and to obtain payment for the products that it sells; the<br />
effect of weather conditions, natural disasters and accidents on the<br />
agriculture business or the company's facilities; and other risks and<br />
factors detailed in the company's most recent periodic report to the SEC.<br />
Undue reliance should not be placed on these forward-looking<br />
statements, which are current only as of the date of this presentation. The<br />
company disclaims any current intention or obligation to update any<br />
forward-looking statements or any of the factors that may affect actual<br />
results.<br />
Trademarks<br />
Trademarks owned by <strong>Monsanto</strong> Company and its wholly-owned<br />
subsidiaries are italicized in this presentation. All other trademarks are<br />
the property of their respective owners.<br />
© 2010 <strong>Monsanto</strong> Company<br />
2<br />
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PAGE 3 Event Schedule<br />
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Pipeline Resources<br />
Understanding the Pipeline<br />
Valuing the Pipeline<br />
Pipeline Overview<br />
Gothenburg Water Utilization Learning Center<br />
Welcome<br />
Contents<br />
Commercial Field Tours<br />
Genuity SmartStax, Genuity VT Triple PRO and Genuity VT Double PRO<br />
Genuity SmartStax and Genuity VT Double PRO Refuge in a Bag<br />
Genuity Roundup Ready 2 Yield<br />
Corn Pipeline Field Tours<br />
Drought-Tolerant Corn Family¹<br />
Nitrogen-Utilization Corn¹<br />
Higher-Yielding Corn¹<br />
YieldGard Rootworm III<br />
YieldGard Corn Borer III<br />
Dicamba-, Glufosinate-, and Glyphosate-Tolerant Corn<br />
Soy Pipeline Field Tours<br />
Dicamba-Tolerant Soybeans<br />
Insect-Protected Genuity Roundup Ready 2 Yield Soybean Family<br />
Higher-Yielding Soybean Family¹<br />
Soymega SDA Omega-3 Soybeans²<br />
Vistive Gold Soybeans<br />
Additional Pipeline Projects<br />
Roundup Hybridization System for Corn<br />
FOPs-Tolerant Corn<br />
Soybean Nemotode Resistance³<br />
Dicamba- and Glufosinate-Tolerant Cotton<br />
Genuity Bollgard III Cotton<br />
Drought-Tolerant Cotton Family¹<br />
Cotton Lygus Control<br />
Genuity Roundup Ready 2 Canola<br />
Higher-Yielding Canola¹<br />
Background: The Tools of Our Innovation<br />
Germplasm<br />
Genomics<br />
Breeding<br />
Biotechnology<br />
1 Part of the <strong>Monsanto</strong>-BASF Yield and Stress R&D Collaboration; ²Part of the <strong>Monsanto</strong>-Solae Collaboration;<br />
³Part of the <strong>Monsanto</strong>-BASF R&D Collaboration<br />
3<br />
2
WHISTLE STOP V<br />
This is the fifth of <strong>Monsanto</strong>’s<br />
summer field events for investors<br />
and analysts. Hosted by<br />
<strong>Monsanto</strong>’s executive team, this is<br />
an opportunity to experience<br />
<strong>Monsanto</strong>’s rich pipeline and<br />
commercial diversity in the field,<br />
guided by our top agricultural<br />
experts.<br />
WEDNESDAY, AUGUST 11, 2010<br />
9:30 AM Buses arrive at Lincoln Airport<br />
Event Schedule<br />
11:00 AM Buses depart to Gothenburg Water Utilization Learning Center<br />
Lunch provided<br />
1:30 PM Arrive at Gothenburg Water Utilization Learning Center<br />
2:00 PM Welcome and Opening Remarks<br />
Hugh Grant Chairman, President and<br />
Chief Executive Officer<br />
Commercial Mid-Season Update<br />
Robb Fraley Executive Vice President,<br />
Chief Technology Officer<br />
Brett Begemann Executive Vice President,<br />
Seeds & Traits<br />
Ted Crosbie Vice President,<br />
Global Plant Breeding<br />
Learning Center Welcome and Safety Overview<br />
Chan Mazour Water Utilization Learning<br />
Center Manager<br />
4<br />
3
WEDNESDAY, AUGUST 11, 2010 – (CONT.)<br />
COMMERCIAL FIELD TOURS<br />
2:45 PM Genuity VT Triple PRO, Genuity VT Double PRO &<br />
Genuity SmartStax<br />
5:15 PM Q&A Session<br />
Event Schedule<br />
Brett Begemann Executive Vice President,<br />
Seeds & Traits<br />
Chism Craig Technology Development Manager<br />
Site A<br />
Refuge in a Bag Site B<br />
Robb Fraley Executive Vice President,<br />
Chief Technology Officer<br />
Hobart Beeghly Vice President, U.S. Seeds & Traits<br />
Product Management<br />
Tom Eickhoff Monmouth Learning Center<br />
Manager<br />
Genuity Roundup Ready 2 Yield Site C<br />
Mike Stern Vice President, U.S. Commercial<br />
Seeds & Traits<br />
Dan Zinck Regional Agronomy Lead –<br />
Asgrow/DEKALB<br />
Breeding and Germplasm Site D<br />
Ted Crosbie Vice President,<br />
Global Plant Breeding<br />
Sam Eathington North America Corn Line<br />
Development Breeding Director<br />
Calvin Treat Global Soybean Breeding Lead<br />
WATER UTILIZATION LEARNING CENTER<br />
Brett Begemann Executive Vice President,<br />
Seeds & Traits<br />
Carl Casale Executive Vice President,<br />
Chief Financial Officer<br />
Ted Crosbie Vice President, Global Plant Breeding<br />
Robb Fraley Executive Vice President,<br />
Chief Technology Officer<br />
Hugh Grant Chairman, President, and<br />
Chief Executive Officer<br />
Consuelo Madere President, <strong>Monsanto</strong><br />
Vegetable Seeds<br />
Steve Padgette Vice President, Biotechnology<br />
5<br />
4
WEDNESDAY, AUGUST 11, 2010– (CONT.)<br />
DINNER<br />
6:00 PM Depart for Feather River Winery<br />
6:30 PM Cocktails and dinner hosted by the Executive Team,<br />
Technology Leadership Team, and Local Growers<br />
8:00 PM Depart for Holiday Inn and Hampton Inn Hotels<br />
8:20 PM Arrive at Holiday Inn and Hampton Inn Hotels<br />
8:30 PM Informal Cocktails at Holiday Inn and Hampton Inn<br />
Event Schedule<br />
6<br />
5
THURSDAY, AUGUST 12, 2010<br />
Event Schedule<br />
6:00 AM To-Go Coffee and Tea Service Holiday Inn<br />
Hampton Inn<br />
6:45 AM Buses Depart for Water Utilization Learning Center<br />
7:25 AM Arrive at Water Utilization Learning Center<br />
7:30 AM Breakfast<br />
BREAKFAST<br />
7:45 AM Technology Leadership Q&A<br />
David Fischhoff Vice President, Technology, Strategy &<br />
Development<br />
Bob Reiter Vice President, Breeding Technology<br />
Phil Miller Vice President, Regulatory<br />
FIELD TOURS: Pipeline and Technology<br />
8:15 AM Drought-Tolerant Corn Site 1<br />
Steve Padgette Vice President, Biotechnology<br />
John Goette Trait Licensing Lead, Global<br />
Agreements<br />
Chandler Mazour Gothenburg Learning Center<br />
Manager<br />
Corn Pipeline:<br />
Nitrogen Use Efficiency<br />
Higher-Yielding<br />
Dicamba-, Glufosinate- and Glyphosate-<br />
Tolerance<br />
Insect-Control Traits<br />
Dusty Post Global Corn Technology Lead<br />
Tom Eickhoff Monmouth Learning Center Manager<br />
Mark Reiman Gothenburg Learning Center<br />
Agronomist<br />
Soy Pipeline:<br />
Dicamba-Tolerance<br />
Higher-Yielding<br />
Insect-Protected<br />
Value Traits<br />
Roy Fuchs Global Oilseeds Technology Lead<br />
Bob Reiter Vice President, Breeding Technology<br />
Troy Coziahr Monmouth Learning Center<br />
Agronomist<br />
Site 2<br />
Site 3<br />
7<br />
6
10:15 AM Closing Remarks<br />
THURSDAY, AUGUST 12, 2010 (CONT.)<br />
CLOSING<br />
Hugh Grant Chairman, President and Chief<br />
Executive Officer<br />
10:45 AM Buses Depart for Lincoln Airport<br />
1:45 PM Buses Arrive at Lincoln Airport<br />
Event Schedule<br />
8<br />
7
Pipeline Process and Phases<br />
Understanding the Pipeline<br />
The product pipeline tracks through five phases. The early phases abound with<br />
investigative activity as our researchers systematically test concepts, models and<br />
leads for products whose commercial introduction may still be a decade away. Tens<br />
of thousands of candidates are screened and tested for every project that makes its<br />
way through all five phases, eventually reaching the market.<br />
It is generally reasonable to think about each phase as a two-year stage, although<br />
that can vary depending on technical milestones and external factors like regulatory<br />
approvals. Whenever we discuss projects, we’ll do so in terms of the phase it is in,<br />
rather than a specific launch date. This approach provides a better indicator of a<br />
project’s actual status in the development process, and it acknowledges the<br />
variability inherent in the specific timing of any commercial launch.<br />
Phase Description<br />
Discovery Conduct high-throughput screening of genetic<br />
database to identify valuable plant traits that<br />
can be used in our breeding program and<br />
valuable genes that can be used to improve<br />
plants. Apply screens to broad categories of<br />
interest, identifying multiple leads that can be<br />
investigated. Within each project category,<br />
there are specific research platforms that guide<br />
discovery work. The ongoing research within<br />
each discovery platform will generate new<br />
project leads, which are designated with a<br />
description and added in Phase 1.<br />
1 Test gene configurations in plants to screen for<br />
desired performance. Determine which product<br />
leads show the most promise for application to<br />
core crops.<br />
2 Conduct lab and field testing of genes in plants<br />
to select commercial product candidates and to<br />
meet regulatory requirements.<br />
3 Demonstrate efficacy of traits in elite<br />
germplasm. Develop regulatory data as<br />
appropriate.<br />
4 Produce bulk seed for potential sale, develop<br />
plans for commercialization/launch, and<br />
respond to regulatory processes as<br />
appropriate.<br />
Average<br />
Duration 1<br />
24 to 48<br />
months<br />
12 to 24<br />
months<br />
12 to 24<br />
months<br />
12 to 24<br />
months<br />
12 to 36<br />
months<br />
1 Time estimates are based on our experience; they can overlap. Total development time for any<br />
particular product may be shorter or longer than the time estimated here.<br />
2 This is the estimated average probability that the traits will ultimately become commercial products,<br />
based on our experience. These probabilities may change over time. Commercialization is dependent<br />
on many factors, including successful conclusion of the regulatory process.<br />
Average<br />
Probability<br />
of Success 2<br />
5 percent<br />
25 percent<br />
50 percent<br />
75 percent<br />
90 percent<br />
9<br />
8
Valuing the Pipeline<br />
• Valuation estimates are specific to the traits, regardless of the stacked<br />
combination in which it is sold. These estimates do not reflect value attributed<br />
to other traits or germplasm, nor do they include the replacement value of a<br />
previous generation. (Example: The Genuity SmartStax value in 2020<br />
represents the incremental gross sales created by the trait and excludes the<br />
value of the current commercial triple-stack corn product that it replaces).<br />
• Assumed launch dates coordinate with phase placement in the R&D pipeline<br />
and normal progression timelines.<br />
• 2020 value reflects gross sales opportunity in launch country in year 2020<br />
• Launch country acres reflect areas where technology fits at <strong>Monsanto</strong>’s 2009<br />
share in corn and soybeans, for products launching in the United States. For<br />
cotton and for products launching outside of the United States, launch country<br />
acres represent the total acre opportunity.<br />
YIELD AND STRESS VALUATION METRICS<br />
In 2010, <strong>Monsanto</strong> and BASF agreed to extend the collaboration established in 2007<br />
by committing up to an additional $1 billion in research and development and<br />
adding wheat as the fifth crop. For projects in this segment of the pipeline, there<br />
are additional key criteria that factor into valuation:<br />
• Projects are valued as families because individual projects never reach peak<br />
penetration before successive generation projects are commercialized. (For<br />
example, the gross revenues in 2020 for the Drought-Tolerant Corn family<br />
include revenues from the first-generation product that is targeted for the<br />
drylands, plus the estimated 2020 revenue from the second-generation broad<br />
acre product.)<br />
• The profit in Yield and Stress will be shared with BASF, as the collaboration<br />
structure was established with a commercial-value ratio of 60 percent<br />
<strong>Monsanto</strong> – 40 percent BASF.<br />
10<br />
9
SOYBEAN PIPELINE<br />
Project Phase<br />
SUMMARY VALUATION TABLE<br />
2020<br />
Value<br />
Pipeline Overview<br />
Country of<br />
Launch<br />
Acreage<br />
Potential –<br />
Country of<br />
Launch<br />
Additional<br />
Geographic<br />
Opportunity<br />
Soymega SDA Omega-3¹ 4
Water Utilization Learning Center<br />
The Gothenburg Water Utilization<br />
Learning Center was developed to<br />
provide answers and solutions to current<br />
questions and issues raised in production<br />
agriculture. The Learning Center at<br />
Gothenburg opened in June 2009 and is<br />
located on a 324 acre research farm in<br />
conjunction with Technology<br />
Development, Line Development<br />
Breeding and Testing groups. The soil<br />
type at the site is a silt loam and the<br />
average annual rainfall is 23 inches.<br />
Farmers in the shadow of the Rocky<br />
Mountains are challenged with subadequate<br />
annual precipitation. We help<br />
farmers achieve their yield and<br />
productivity goals with an emphasis on<br />
water utilization.<br />
From our classroom training and plot<br />
tours, discovery is the driving force<br />
behind everything we do. At the<br />
Gothenburg Water Utilization Learning<br />
Center we take a three-pronged systemsbased<br />
approach in helping farmers<br />
manage drought; native genes selected<br />
through traditional plant breeding, the<br />
additive impact of biotech traits and<br />
finally the additive impact of agronomic<br />
components of the system.<br />
Our mission at the learning center is to<br />
apply innovation and technology to help<br />
America’s farmers and stakeholders grow<br />
yield sustainably. Our goal is for famers to<br />
be successful by producing more<br />
abundant, healthier quality food, feed,<br />
and fiber while reducing the impact on<br />
the environment.<br />
On behalf of our team and everyone at<br />
<strong>Monsanto</strong>, welcome to Gothenburg.<br />
Chan Mazour<br />
Water Utilization Learning<br />
Center Manager<br />
12<br />
11
PRODUCT CONCEPT<br />
SmartStax combines eight different<br />
herbicide-tolerance and insectprotection<br />
genes – resulting in multiple<br />
modes of action – to create topperforming<br />
hybrids for the most<br />
complete insect and weed control ever<br />
available to growers. The product<br />
includes above- and below-ground insect<br />
protection systems, including Dow<br />
AgroSciences’ HERCULEX ® I and<br />
HERCULEX ® RW technologies;<br />
<strong>Monsanto</strong>’s YieldGard VT Rootworm/RR2<br />
and YieldGard VT PRO technologies; and<br />
two established weed control systems,<br />
Roundup Ready and Bayer’s Libertylink ® .<br />
NEED FULLFILLED<br />
• This product maximizes farmer<br />
profitability through reduced refuge<br />
and broadest insect control.<br />
SmartStax multi modes of actions<br />
for above and below insect control<br />
enhances durability with the<br />
flexibility to move to one technology<br />
platform on farm; the flexibility to<br />
increase planting populations and<br />
access to superior seed.<br />
Genuity SmartStax Corn<br />
CURRENT STATUS<br />
• Launched on 3 million acres with<br />
broad participation of more than 20<br />
percent of branded customer base<br />
13<br />
12
PRODUCT CONCEPT<br />
Genuity VT Triple PRO improves upon<br />
the flagship YieldGard VT Triple stack<br />
product through the use of <strong>Monsanto</strong>’s<br />
second-generation, multiple-mode of<br />
action, above-ground insect control<br />
found in Genuity SmartStax. This<br />
differentiated product protects against<br />
European and Southwestern corn borer,<br />
corn earworm and fall armyworm and<br />
will be featured in the most advanced<br />
hybrids available from <strong>Monsanto</strong>.<br />
NEED FULLFILLED<br />
• This product provides incremental<br />
above-ground insect protection and<br />
a reduced refuge in the southern<br />
cotton growing regions from 50<br />
percent to 20 percent.<br />
Genuity VT Triple PRO<br />
CURRENT STATUS<br />
• Farmers planted Genuity VT Triple<br />
PRO primarily in the South taking<br />
advantage of the better aboveground<br />
insect control and a lower<br />
structured refuge to 20 percent<br />
14<br />
13
PRODUCT CONCEPT<br />
Genuity VT Double PRO features<br />
<strong>Monsanto</strong>’s second-generation,<br />
multiple-mode of action, aboveground<br />
insect control found in Genuity<br />
SmartStax and a single gene for weed<br />
control. This differentiated product<br />
protects against European and<br />
Southwestern corn borer, corn<br />
earworm and fall armyworm and will<br />
be featured in the most advanced<br />
hybrids available from <strong>Monsanto</strong>.<br />
NEED FULLFILLED<br />
• Genuity VT Double PRO offers farmers<br />
a true choice for a non-rootworm<br />
control product. The technology<br />
delivers better insect control through<br />
multiple modes of action aboveground,<br />
plus farmers enjoy the<br />
benefit of a 5 percent structured<br />
refuge in the Corn Belt.<br />
Genuity VT Double PRO<br />
CURRENT STATUS<br />
• Successfully placed limited<br />
quantities on farms this season.<br />
Strong interest from farmers led to<br />
the decision to formally launch this<br />
product in the 2011 growing season.<br />
15<br />
14
Genuity SmartStax and Genuity VT<br />
Double PRO Refuge in a Bag<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
<strong>Monsanto</strong> expects to complete the<br />
investment in its proprietary<br />
manufacturing processes and deliver in<br />
2012, pending EPA approval, the<br />
industry’s first single-bag, 5 percent<br />
refuge-in-a-bag solution for farmers in<br />
the Corn Belt.<br />
NEED FULFILLED<br />
• Farmers eagerly await the<br />
opportunity to eliminate their<br />
structured refuge and simplify their<br />
planting with “fence-post-to-fencepost”<br />
farming. Our research shows<br />
the best way a RIB concept works for a<br />
farmer without hurting his yield is to<br />
deploy RIB at a 5-percent refuge level.<br />
In particular, in a high-pressure insect<br />
environment, the yield benefit of a 5percent<br />
refuge over a 10-percent<br />
option would be clear. Genuity<br />
SmartStax and Genuity VT Double PRO<br />
are the only products today that can<br />
meet that threshold.<br />
CURRENT STATUS<br />
• <strong>Monsanto</strong> completed the regulatory<br />
submission to the EPA in separate<br />
packages for a 5 percent refuge-in-abag<br />
product for Genuity SmartStax<br />
and Genuity VT Double PRO.<br />
16<br />
15
PRODUCT CONCEPT<br />
Roundup Ready 2 Yield soybeans<br />
provide farmers with soybeans that<br />
are tolerant to the Roundup family of<br />
agricultural herbicides and have<br />
enhanced yields compared with firstgeneration<br />
Roundup Ready soybeans.<br />
Development data indicated a 7-to-11<br />
percent yield increase for this trait.<br />
This product will have the option to<br />
include Acceleron seed treatment<br />
products to provide additional yield<br />
protection.<br />
NEED FULFILLED<br />
Roundup Ready 2 Yield offers farmers a<br />
true step-change in yield performance<br />
accomplishing in one year what would<br />
take seven or more years through<br />
conventional breeding. Coupled with<br />
our very best varieties, Roundup Ready<br />
2 Yield becomes the platform for future<br />
biotech enhancements to soybeans.<br />
Genuity Roundup Ready 2<br />
Yield Soybeans<br />
CURRENT STATUS<br />
<strong>Monsanto</strong> successfully implemented<br />
the full commercial launch on 6 million<br />
acres with over 40 percent of its<br />
branded customers trying Roundup<br />
Ready 2 Yield. Nearly two-thirds of the<br />
U.S. industry has now committed to<br />
this new technology with Syngenta,<br />
Dow and several large seed companies<br />
making the choice to have Roundup<br />
Ready 2 Yield be their platform for the<br />
future.<br />
17<br />
16
Drought-Tolerant Corn<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
First-generation drought<br />
tolerance is targeted to<br />
minimize uncertainty in<br />
farming by buffering against<br />
the effects of water limitation,<br />
primarily in areas of annual<br />
water stress. In the United<br />
States, this area has historically<br />
been the dryland farms of the<br />
Western Great Plains.<br />
NEED FULFILLED<br />
Agriculture uses more than 70 percent<br />
of the world’s fresh water resources.<br />
Drought-tolerant corn could offer<br />
farmers one way to reduce agriculture’s<br />
effect on the environment. Water is also<br />
the biggest limiting factor in agriculture<br />
production. Every acre of corn faces<br />
some degree of water stress at some<br />
point in the growing season. This<br />
product could allow farmers to achieve<br />
more consistent yields even during<br />
times of water stress.<br />
CURRENT STATUS<br />
The project is in Phase IV, the advanced<br />
development stage. This phase includes<br />
developing plans for commercialization/<br />
launch, including production seed plans,<br />
and responding to regulatory processes<br />
as appropriate. Our goal is to insert the<br />
drought trait in elite hybrids for either<br />
Genuity SmartStax or Genuity VT Double<br />
PRO products or perhaps both.<br />
Regulatory submissions have been made<br />
in the U.S., Canada, and other key corn<br />
markets.<br />
Part of the Drought-Tolerant Corn Family<br />
Garden City, KS – July 2010<br />
Control With Gene<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-$500M<br />
Launch Country: U.S.<br />
Family Launch<br />
Country Acres:<br />
Additional<br />
Geographic<br />
Opportunity:<br />
PART OF THE MONSANTO-BASF YIELD<br />
AND STRESS R&D COLLABORATION<br />
45M-55M<br />
Brazil,<br />
Argentina,<br />
EU27<br />
Targeted Yield: Reduce yield<br />
loss by up to 10<br />
bushels per<br />
acre in water<br />
stressed<br />
environments<br />
Drought I technology designed for the 10to-13<br />
million acres of non-irrigated<br />
western U.S. dryland addresses a critical<br />
need for farmers. Minimizing yield lost<br />
during drought stressed conditions<br />
requires a systems approach using<br />
biotechnology traits, advanced plant<br />
breeding for drought tolerance and<br />
agronomic practices.<br />
18<br />
17
Second-Generation<br />
Drought-Tolerant Corn<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
The second-generation of<br />
drought-tolerant corn is<br />
aimed at boosting yield<br />
stability for broad-acre<br />
applications and reducing<br />
water input required in<br />
water-limited environments.<br />
NEED FULFILLED<br />
Agriculture uses more than 70<br />
percent of the world’s fresh water<br />
resources. Drought-tolerant corn<br />
could offer farmers one way to<br />
reduce agriculture’s effect on the<br />
environment. Water is also the<br />
biggest limiting factor in agriculture<br />
production. Every acre of corn<br />
faces some degree of water stress<br />
at some point in the growing<br />
season. This product could allow<br />
farmers to achieve more consistent<br />
yields even during times of water<br />
stress.<br />
CURRENT STATUS<br />
This project is in Phase II, early<br />
product development. This phase<br />
includes conducting lab and field<br />
testing of genes in plants to select<br />
commercial product candidates<br />
and for advancement of selected<br />
events into regulatory testing.<br />
Part of the Drought-Tolerant Corn Family<br />
Woodland, CA – July 2010<br />
Control With Gene<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-$500M<br />
Launch Country: U.S.<br />
Family Launch<br />
Country Acres:<br />
Additional<br />
Geographic<br />
Opportunity:<br />
45M-55M<br />
Brazil,<br />
Argentina, EU27<br />
Targeted Yield: 6%-10% yield<br />
improvement in water<br />
stress environments<br />
Drought II technology is designed for broad-acre<br />
application in the primary corn growing region<br />
of the U.S. as well as the dryland acres in the<br />
Western Great Plains.<br />
Farmers value water-use in “acre-inches of<br />
water” needed to support yield potential.<br />
Farmers need 18-to-20 inches of moisture from<br />
natural or irrigated sources during the growing<br />
season. Pumped irrigation has a variable cost of<br />
~$5 per acre inch.<br />
PART OF THE MONSANTO-BASF YIELD<br />
AND STRESS R&D COLLABORATION<br />
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Nitrogen-Utilization Corn<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
Nitrogen utilization targets<br />
ways that corn plants can use<br />
nitrogen more efficiently,<br />
exploring the potential to<br />
boost yield under normal<br />
nitrogen conditions or to<br />
stabilize yield in reduced<br />
nitrogen environments.<br />
NEED FULFILLED<br />
Nitrogen is one of the most important<br />
farm inputs and is the most price<br />
sensitive to petroleum-input costs.<br />
Nitrogen prices have been highly<br />
volatile in recent years and are one of<br />
the most significant crop inputs for<br />
farmers.<br />
CURRENT STATUS<br />
The project is in Phase I, the proof of<br />
concept phase, which includes<br />
discovering new genes and evaluating<br />
these genes in our technology<br />
programs.<br />
Part of the Nitrogen-Utilization Corn Family<br />
Response to Applied Nitrogen<br />
Jerseyville, IL 2009<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-<br />
$500M<br />
Launch Country: U.S.<br />
Family Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
Targeted Yield<br />
Improvement:<br />
(At standard application levels<br />
of nitrogen)<br />
PART OF THE MONSANTO-BASF YIELD<br />
AND STRESS R&D COLLABORATION<br />
Sufficient<br />
nitrogen<br />
Limiting<br />
nitrogen<br />
45M-55M<br />
Brazil,<br />
Argentina,<br />
EU27<br />
6%-to-10%<br />
Fertilizer represents one of the largest<br />
input costs in agriculture (30 to 40<br />
percent of total variable input costs), with<br />
nitrogen accounting for approximately 60<br />
percent of the total fertilizer costs for a<br />
corn producer. Improving nitrogen-use<br />
efficiency in corn provides an opportunity<br />
for increased farmer profitability, while<br />
also offering a new way to reduce<br />
agriculture’s overall effect on the<br />
environment.<br />
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Higher-Yielding Corn<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
Higher-yielding corn is<br />
aimed at boosting the<br />
intrinsic yield potential of<br />
corn hybrids.<br />
NEED FULFILLED<br />
Higher-yielding corn creates additional<br />
yield for farmers, increasing their<br />
productivity. As population expands,<br />
protein demand increases, and<br />
renewable fuel becomes more<br />
important, higher yields offer farmers a<br />
way to better help meet these growing<br />
demands. Higher-yielding corn<br />
increases average yield per acre under<br />
typical growing conditions.<br />
CURRENT STATUS<br />
This project is in Phase II, early product<br />
development. Phase II includes lab and<br />
field testing of traits to select<br />
commercial product candidates and to<br />
advance the best performing events to<br />
regulatory trials.<br />
Part of the Broad-Acre, Higher-Yielding Corn Family<br />
with Gene Control<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $1B-$1.25B<br />
Launch Country: U.S.<br />
Family Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
Targeted Yield<br />
Improvement:<br />
PART OF THE MONSANTO-BASF YIELD<br />
AND STRESS R&D COLLABORATION<br />
45M-55M<br />
Brazil,<br />
Argentina,<br />
EU27<br />
6%-to-10%<br />
Increasing yield on existing acres helps to<br />
make farming more profitable. Producing<br />
more on the same acre also improves<br />
land stewardship by not bringing<br />
additional acres into production to meet<br />
demand.<br />
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YieldGard Rootworm III<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
YieldGard Rootworm III is designed<br />
to offer increased control and<br />
durability against the corn<br />
rootworm. This next generation<br />
product aims to use two distinct<br />
modes of action providing two<br />
different approaches to insect<br />
control. Having two modes of<br />
action supports a lower structured<br />
refuge, thereby making every acre<br />
planted more productive.<br />
NEED FULFILLED<br />
The two independent technologies<br />
would offer increased insect protection<br />
and durability for the farmer. The corn<br />
rootworm has been dubbed the<br />
“billion dollar bug” because of the<br />
extreme damage that it can do to corn<br />
crops and because of the input costs<br />
associated with it. The corn rootworm<br />
feeds on the roots of the corn plant<br />
under the soil, limiting the plant’s<br />
ability to take up nutrients and water,<br />
and increasing the potential for<br />
lodging. The first generation of in-plant<br />
corn rootworm technologies has<br />
provided significant yield benefits,<br />
reduced input cost from insecticides,<br />
and increased protection from<br />
environmental stress, such as drought.<br />
CURRENT STATUS<br />
This project is in Phase II, early product<br />
development. Lab and field testing of<br />
genes in plants are being conducted to<br />
select commercial product candidates<br />
and to advance the best performing<br />
events to regulatory trials.<br />
Jerseyville, IL. Jan 2010 Greenhouse Trial<br />
Conventional<br />
MON88017<br />
RNAi<br />
RNAi+ Bt<br />
VALUE CONSIDERATIONS<br />
2020 Value: $500M-<br />
$750M<br />
Launch Country: U.S.<br />
Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
RNAi+ Bt<br />
In collaboration with deVGen<br />
45M-55M<br />
Brazil,<br />
Argentina<br />
The technology incorporates cutting-edge<br />
RNA interference (RNAi) technology. RNAi<br />
is a mechanism used naturally by cells to<br />
regulate gene expression. By harnessing<br />
this natural machinery, RNAi technology<br />
can help plants protect themselves from<br />
corn rootworm feeding damage.<br />
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YieldGard Corn Borer III<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
YieldGard Corn Borer III is designed to<br />
offer increased control and durability<br />
against key lepidopeteran pests. This<br />
next-generation product is designed<br />
to use two distinct modes of action<br />
providing two different approaches to<br />
insect control. Having two modes-ofaction<br />
supports a lower structured<br />
refuge, thereby making on farm<br />
productivity higher.<br />
NEED FULFILLED<br />
Corn Borer III is designed to offer an<br />
unparalleled combination of insect<br />
control and resistance management<br />
with excellent control of target pests<br />
such as the corn borer complex, fall<br />
armyworm, corn earworm and<br />
cutworms. Lepidopteran insects feed<br />
on the leaves, ear, silk and stalk of the<br />
corn plant, limiting the plants ability to<br />
produce grain and causing additional<br />
losses in poor grain quality. This<br />
product would offer yield benefits and<br />
reduced input costs from insecticides.<br />
CURRENT STATUS<br />
This project is in Phase II, early product<br />
development. Lab and field testing of<br />
genes in plants are being conducted to<br />
select commercial product candidates<br />
and to advance the best performing<br />
events to regulatory trials.<br />
Western Bean Cutworm Control<br />
with Genes Control<br />
VALUE CONSIDERATIONS<br />
2020 Value: $500M-<br />
$750M<br />
Launch Country: U.S.<br />
Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
45M-55M<br />
Brazil,<br />
Argentina<br />
YieldGard Corn Borer III will be one of the<br />
primary components of our next<br />
generation of insect control platform<br />
along with YieldGard Corn Rootworm III.<br />
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Dicamba-, Glufosinate-, and<br />
Glyphosate-Tolerant Corn<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
The dicamba- and<br />
glufosinate-tolerant corn<br />
product is designed to build<br />
on the Roundup Ready<br />
platform and provide<br />
farmers with additional<br />
herbicide-tolerance options.<br />
NEED FULFILLED<br />
This product would provide additional<br />
options to growers to control difficult<br />
weeds. The use of a product<br />
containing multiple herbicide<br />
tolerances with different modes of<br />
action would provide flexible options<br />
for growers’ to protect their crop from<br />
yield-robbing noxious weed<br />
infestations<br />
CURRENT STATUS<br />
The project is in Phase II, early product<br />
development. Lab and field testing of<br />
genes in plants are being conducted to<br />
select commercial product candidates<br />
and to advance the best-performing<br />
events to regulatory trials.<br />
¹Glyphosate 3lb/A plus dicamba 1lb/A at V4<br />
and Glufosinate 0.8 lb/A plus dicamba 1lb/A<br />
at V7.<br />
Jerseyville, Illinois – July 2010<br />
Lead Event Roundup Ready Wild-type<br />
Glyphosate + Dicamba + Glufosinate, at 2X rates.<br />
Photos were taken 10 days post the second spray.¹<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-<br />
$500M<br />
Launch Country: U.S.<br />
Family Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
45M-55M<br />
Brazil<br />
Argentina<br />
EU27<br />
These herbicide-tolerance options would<br />
give farmers the flexibility to utilize<br />
multiple chemistries to lessen the<br />
possibility of weed resistance or solve<br />
current weed resistance problems.<br />
According to the USDA, weeds compete<br />
with corn for light, nutrients, and water,<br />
especially during the first three to five<br />
weeks following emergence of the crop.<br />
This product would give farmers the<br />
flexibility and confidence with more<br />
herbicide-tolerance options to protect<br />
their high yielding germplasm from<br />
yield-robbing noxious weed infestations.<br />
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Dicamba-Tolerant Soybeans<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
The addition of dicambatolerance<br />
to the Genuity<br />
Roundup Ready 2 Yield<br />
soybean platform would<br />
enable the use of dicamba<br />
and glyphosate herbicide tank<br />
mixes for pre-plant burndown<br />
and in-season weed control<br />
resulting in the most effective<br />
and highest yielding weed<br />
management system<br />
available.<br />
NEED FULFILLED<br />
Effective weed control is critical to<br />
protect crop yields to meet the<br />
growing global demand for food, feed<br />
and fuel. Dicamba-tolerant soybeans<br />
are expected to be <strong>Monsanto</strong>’s thirdgeneration<br />
of herbicide-tolerant<br />
soybean products. Combining a second<br />
mode of action for herbicide tolerance<br />
with the Genuity Roundup Ready 2<br />
Yield technology would offer growers<br />
an additional tool for weed control<br />
through the use of glyphosate,<br />
dicamba, or combinations of both<br />
herbicides, and increased yield from<br />
the Genuity Roundup Ready 2 Yield<br />
trait.<br />
CURRENT STATUS<br />
The project is in the advanced<br />
development stage, Phase III. This<br />
phase involves demonstrated efficacy<br />
of traits in elite germplasm and trait<br />
integration activities. <strong>Monsanto</strong><br />
recently completed regulatory<br />
submission to the U.S. Department of<br />
Agriculture and expects to make<br />
additional submissions for global<br />
import approvals in key export makers<br />
over the next several months.<br />
VALUE CONSIDERATIONS<br />
2020 Value:
PRODUCT CONCEPT<br />
Insect-protected soybeans<br />
use the same Bt technology<br />
widely adopted in corn and<br />
cotton to control the<br />
economically significant<br />
insect pests in Brazil,<br />
including the soybean looper<br />
and velvetbean caterpillar.<br />
The Bt trait is stacked with<br />
Roundup Ready 2 Yield for<br />
excellent weed control and<br />
yield enhancement.<br />
Insect-Protected Genuity Roundup<br />
Ready 2 Yield Soybeans<br />
NEED FULFILLED<br />
Insect protection is an important tool to<br />
increase farmers’ yields and reduce<br />
insecticide applications, helping them<br />
meet the growing demands for food, feed,<br />
and fuel. Insect-protected soybeans with<br />
Roundup Ready 2 Yield have<br />
demonstrated higher yields and improved<br />
insect control compared with commonly<br />
applied insecticide treatments, providing<br />
potential cost savings and enhanced yield<br />
performance. Insect-protected soybeans<br />
are the first <strong>Monsanto</strong> trait product to be<br />
developed exclusively for a non-U.S.<br />
market, notably Brazil, where insect<br />
pressure is a significant challenge in<br />
soybean production.<br />
CURRENT STATUS<br />
This project is in Phase IV, the advanced<br />
development stage. This phase includes<br />
developing plans for commercialization/<br />
launch, including seed production plans<br />
and obtaining global regulatory<br />
approvals.<br />
Part of the Insect-Protected Soybean Family<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
Morrinhos, Brazil – 2009/2010 Season<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-$500M<br />
Launch Country: Brazil<br />
Family Launch<br />
Country Acres:<br />
Additional<br />
Geographic<br />
Opportunity:<br />
Targeted Yield<br />
Improvement:<br />
50M-60M<br />
Argentina<br />
10% over<br />
current<br />
Roundup<br />
Ready varieties<br />
This product would also offer insecticide<br />
substitution, based on two current<br />
sprays reducing input costs by $5-to-$6<br />
per acre. Additional yield benefits are<br />
expected from improved insect control<br />
and Roundup Ready 2 Yield<br />
technologies.<br />
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Second-Generation Insect-Protected<br />
Genuity Roundup Ready 2 Yield Soybeans<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
This product is the second generation of<br />
insect-protected soybeans using the same<br />
Bt technology widely adopted in corn and<br />
cotton to control economically significant<br />
insect pests in Brazil. This product targets<br />
improved spectrum and durability<br />
compared to the first-generation product.<br />
NEED FULFILLED<br />
Insect pressure is a significant<br />
challenge in soybean production in<br />
Latin America. This second-generation<br />
insect-protected soybean product will<br />
be combined with the first-generation<br />
Insect-Protected Roundup Ready 2<br />
Yield product to target enhanced insect<br />
control through broader spectrum and<br />
greater durability than the firstgeneration<br />
product which is currently<br />
in Phase IV development.<br />
CURRENT STATUS<br />
This project is in Phase I, which<br />
includes testing genes and gene<br />
combinations in plants to screen for<br />
protection against economically<br />
important Lepidopteran and<br />
Spodopteran insect pests to determine<br />
which genes or combination of genes<br />
show the most promise for further<br />
advancement to commercial<br />
transformation.<br />
Part of the Insect-Protected Soybean Family<br />
Tucumán, Argentina – March 2010<br />
With Gene<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-500M<br />
Launch Country: Brazil<br />
Family Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
Control<br />
50M-60M<br />
Argentina<br />
The second-generation insect-protected<br />
product will contain at least two distinct<br />
modes of action to enhance the spectrum<br />
of insects controlled and increase<br />
durability.<br />
27<br />
26
PRODUCT CONCEPT<br />
Higher-yielding<br />
soybeans are aimed at<br />
boosting the intrinsic<br />
yield potential of<br />
soybeans.<br />
Higher-Yielding Soybeans<br />
Part of the Broad-Acre, Higher-Yielding Soybean Family<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
NEED FULFILLED<br />
CURRENT STATUS<br />
With Gene<br />
Higher-yielding soybeans create<br />
additional yield for farmers, increasing<br />
their productivity. Higher yields are<br />
increasingly important as the global<br />
population continues to expand and as<br />
soybean growers strive to meet the<br />
growing demand for biodiesel and<br />
cooking oils. Additionally, as protein<br />
demand increases in key importing<br />
markets such as China, higher yields<br />
offer farmers a way to better help<br />
meet this demand.<br />
This project is in Phase III where<br />
activities include work to test the<br />
efficacy of traits in elite germplasm as<br />
well as the preparation of data for<br />
regulatory submissions. Across six<br />
seasons of U.S. and Latin American<br />
testing, higher-yielding soybeans<br />
showed an average of 7.7 percent yield<br />
advantage compared with the control.<br />
New Richmond, IN – August 2009<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-$500M<br />
Launch Country: U.S.<br />
Family Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
Targeted Yield<br />
Improvement:<br />
35M-45M<br />
Brazil<br />
Argentina<br />
6-to-10%<br />
This product would offer the potential to<br />
produce more yield per acre, thus<br />
increasing grower profitability.<br />
PART OF THE MONSANTO-BASF YIELD<br />
AND STRESS R&D COLLABORATION<br />
Without Gene<br />
28<br />
27
PRODUCT CONCEPT<br />
This is a second-generation product<br />
that would provide an upgrade to<br />
first-generation higher-yielding<br />
soybeans. This product is aimed at<br />
boosting the intrinsic yield<br />
potential of the soybean through<br />
insertion of genes designed to<br />
increase soybean yields.<br />
Second-Generation<br />
Higher-Yielding Soybeans<br />
Part of the Broad-Acre, Higher-Yielding Soybean Family<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
NEED FULFILLED<br />
Higher-yielding soybeans create<br />
additional harvestable yield for<br />
farmers, increasing their productivity.<br />
Higher yields are becoming<br />
increasingly important as global<br />
population continues to expand and as<br />
soybean growers strive to meet the<br />
growing demand for biodiesel and<br />
cooking oils. Additionally, as protein<br />
demand increases in key importing<br />
markets like China, higher yields offer<br />
farmers a way to better help meet this<br />
demand.<br />
CURRENT STATUS<br />
This project is in Phase I, proof of<br />
concept, which includes testing gene<br />
configurations in plants to screen for<br />
desired performance and determining<br />
which product leads show the most<br />
promise for commercial<br />
transformation.<br />
Conventional<br />
Soybean<br />
VALUE CONSIDERATIONS<br />
2020 Family Value: $250M-$500M<br />
Launch Country: U.S.<br />
Family Launch<br />
Country Acres:<br />
Additional Geographic<br />
Opportunity:<br />
PART OF THE MONSANTO-BASF YIELD<br />
AND STRESS R&D COLLABORATION<br />
Higher-Yielding<br />
Soybean<br />
35M-45M<br />
Brazil<br />
Argentina<br />
When stacked with first-generation yield<br />
products and the superior weed control<br />
provided by Genuity Roundup Ready 2<br />
Yield, this product would deliver an<br />
incremental yield increase compared with<br />
first-generation higher-yielding soybean<br />
varieties.<br />
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Soymega SDA Omega-3 Soybeans<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
Omega-3 enhanced soybeans<br />
represent a sustainable, land-based<br />
source of essential omega-3 fatty<br />
acids. This product is targeted to<br />
produce 20 percent stearidonic acid<br />
(SDA) omega-3 fatty acid in soybean<br />
oil while retaining the taste, shelf life<br />
and oil stability of soybean oil. Upon<br />
consumption SDA is readily converted<br />
to EPA, a heart-healthy omega-3.<br />
NEED FULFILLED<br />
Consumer demand for omega-3 fatty acids is<br />
growing as research continues to demonstrate<br />
that omega-3s play an important role in<br />
maintaining health, including heart health. This<br />
omega-3 containing product could be used in a<br />
broad range of food products since it has a<br />
similar taste, shelf-life and oil stability profile<br />
as soybean oil. SDA omega-3 enriched soybean<br />
oil has a superior nutritional and taste profile<br />
to fish oil and thereby could provide significant<br />
benefits to consumers and food processors. As<br />
land-based source of omega-3 oil, this product<br />
offers an alternative to fish-based omega-3 oil.<br />
CURRENT STATUS<br />
The project is in pre-launch stage, Phase IV.<br />
The U.S. Food and Drug Administration has<br />
issued a positive response letter to <strong>Monsanto</strong>’s<br />
Generally Regarded as Safe notice, that SDA<br />
soybean oil can be used in foods and<br />
beverages. Regulatory submissions have been<br />
completed in the U.S. and in most key<br />
international markets. Through collaboration<br />
partner, Solae, food companies are currently<br />
evaluating oil appropriate products.<br />
VALUE CONSIDERATIONS<br />
2020 Value:
Vistive Gold Soybeans<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
Vistive Gold was designed by<br />
combining breeding and<br />
biotechnology. This lowers linolenic<br />
and saturated fat content while<br />
boosting oleic content to produce<br />
oil with the monounsaturated fat<br />
content of olive oil and low<br />
saturated fat content of canola oil.<br />
Vistive Gold could improve<br />
consumer health by reducing trans<br />
fat and saturated fat, could also<br />
improve food product performance<br />
by increasing oxidative stability and<br />
fry life, and may provide a<br />
sustainable global supply of<br />
vegetable oil.<br />
NEED FULFILLED<br />
Worldwide vegetable oil demand is<br />
projected to grow 70 percent by 2020;<br />
over 80 percent of the oil produced<br />
worldwide is used for food.<br />
Vistive Gold meets recommendations<br />
from the 2010 U.S. Dietary Guidelines<br />
Committee to further reduce saturated<br />
fat and eliminate industrial trans fat<br />
from the diet.<br />
The food industry is searching for costeffective,<br />
sustainable solutions.<br />
CURRENT STATUS<br />
The project is in the pre-launch stage,<br />
Phase IV. The U.S. Food and Drug<br />
Administration has issued a positive<br />
response letter to <strong>Monsanto</strong>’s<br />
Generally Regarded as Safe notice, that<br />
Vistive Gold soybean oil can be used in<br />
foods. Regulatory submissions have<br />
been completed in the U.S. and key<br />
global regulatory submissions are<br />
underway.<br />
Grams Saturated and Trans Fat<br />
Enables “Clean Labels”<br />
(no trans-fat, low saturated fat)<br />
Vistive Gold reduced total saturated<br />
and trans fat 67% in French Fries<br />
10.5g<br />
“Trans<br />
and<br />
Saturated”<br />
Hydro Soy Oil<br />
Medium French Fry (114g serving size/27g total fat). Trans fat reduced from<br />
15.7% to 0.3%; Saturated fat reduced from 23.4% to 13.2% of total fat.<br />
VALUE CONSIDERATIONS<br />
2020 Value:
Additional Pipeline Projects<br />
Corn Pipeline<br />
PAGE 32 Roundup Hybridization System<br />
PAGE 33 FOPs-Tolerant Corn<br />
Soybean Pipeline<br />
PAGE 34 Soybean Nematode Resistance¹<br />
Cotton Pipeline<br />
PAGE 35 Dicamba- and Glufosinate-Tolerant Cotton<br />
PAGE 36 Genuity Bollgard III<br />
PAGE 37 Drought-Tolerant Cotton Family²<br />
PAGE 38 Cotton Lygus Control<br />
Canola Pipeline<br />
PAGE 39 Genuity Roundup Ready 2 Canola<br />
PAGE 40 Higher-Yielding Canola²<br />
1 Part of the <strong>Monsanto</strong>-BASF R&D Collaboration.<br />
² Part of the <strong>Monsanto</strong>-BASF Yield and Stress R&D Collaboration.<br />
32<br />
31
Roundup Hybridization System<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
This is a first-generation<br />
product to replace detasseling<br />
in hybrid seed corn production,<br />
reduce cost of goods, and<br />
enable <strong>Monsanto</strong>’s<br />
commitment to continuous<br />
improvement in regards to<br />
human rights.<br />
NEED FULFILLED<br />
This technology would play an<br />
important role by significantly lowering<br />
the cost of hybrid seed corn production<br />
by reducing the need for temporary<br />
labor to perform manual detasseling.<br />
With 80-to-90 million acres of U.S. corn<br />
produced and over 32 million units of<br />
corn sold annually, more than 450,000<br />
acres of seed must be detasseled by<br />
more than 50,000 people each year in<br />
a two- to three-week window.<br />
CURRENT STATUS<br />
The project is in Phase III. This phase<br />
involves demonstrated efficacy of traits<br />
in elite germplasm, trait integration<br />
activities and the generation of data to<br />
support regulatory submission.<br />
Untreated Treated<br />
VALUE CONSIDERATIONS<br />
2020 Value:
FOPs-Tolerant Corn<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
The next-generation herbicide-tolerant<br />
corn product is designed to build on the<br />
Roundup agricultural herbicide platform<br />
and provide farmers with additional<br />
herbicide-tolerance options.<br />
NEED FULFILLED<br />
This product is designed to provide<br />
alternative in-crop solutions to difficult<br />
weed management problems. A FOPstolerant<br />
trait would enable post<br />
emergence grass control choices for<br />
farmers. The use of a product<br />
containing multiple herbicide<br />
tolerances with different modes of<br />
action would provide flexible options<br />
for growers’ to protect their crop from<br />
yield-robbing noxious weed<br />
infestations.<br />
CURRENT STATUS<br />
The project is in Phase I, the proof of<br />
concept phase, which includes<br />
discovering new genes and evaluating<br />
these genes in our technology<br />
programs.<br />
20 Days After Treatment – July 2010<br />
+ Gene + Gene - Gene<br />
Unsprayed Sprayed Sprayed<br />
VALUE CONSIDERATIONS<br />
To be decided when project enters Phase II<br />
Farmer Value – According to the USDA,<br />
weeds compete with corn for light,<br />
nutrients and water, especially during the<br />
first 3-to-5 weeks following the<br />
emergence of the crop. This product<br />
would give farmers the flexibility and<br />
confidence with more herbicide-tolerance<br />
option to protect their high-yielding<br />
germplasm from yield-robbing noxious<br />
weed infestations.<br />
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Soybean Nematode Resistance<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
Soybean nematode resistance is a<br />
biotechnology approach to provide<br />
superior control of Soybean Cyst<br />
Nematode (SCN) compared with<br />
current genetic sources of control<br />
that are available in commercial<br />
germplasm.<br />
NEED FULFILLED<br />
Soybean cyst nematodes cause<br />
significant losses in soybeans in the<br />
United States each year. The<br />
prevention of yield losses caused by<br />
weeds, diseases and pests is required<br />
to maximize soybean yields. SCN<br />
resistance, when combined with<br />
Genuity Roundup Ready 2 Yield, would<br />
provide growers with improved control<br />
of the SCN pest, which causes millions<br />
of dollars in yield loss each year, and<br />
would lead to superior yields.<br />
CURRENT STATUS<br />
This project is in Phase I, which<br />
includes testing genes and gene<br />
combinations in soybeans to screen for<br />
SCN control and determining which<br />
gene(s) show the most promise for<br />
commercial transformation.<br />
Jack Jones, Louisiana Ag Experiment<br />
Station – LSU, 2008<br />
Susceptible Tolerant<br />
VALUE CONSIDERATIONS<br />
To be decided when project enters Phase II<br />
This product would provide superior<br />
control of soybean cyst nematode when<br />
compared with current sources of control<br />
from breeding and increase soybean<br />
yields for growers.<br />
Soybean root infested by cyst<br />
nematode<br />
PART OF THE MONSANTO-BASF R&D COLLABORATION<br />
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Dicamba- and Glufosinate-<br />
Tolerant Cotton<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
This product would represent<br />
<strong>Monsanto</strong>’s first stack of<br />
herbicide-tolerant technologies<br />
in cotton, containing Genuity<br />
Roundup Ready Flex stacked<br />
with dicamba- and glufosinatetolerance<br />
for three unique<br />
modes of action. This would<br />
provide cotton growers with the<br />
most effective weed<br />
management system available.<br />
NEED FULFILLED<br />
Effective weed control is an important<br />
tool to increase farmers’ yields and<br />
maintain fiber quality. Dicamba- and<br />
glufosinate-tolerant (DGT) cotton is the<br />
third-generation of herbicide tolerance<br />
in cotton. Combining dicamba<br />
tolerance and glufosinate tolerance<br />
with Genuity Roundup Ready Flex<br />
would expand weed control options for<br />
farmers to glyphosate, dicamba or<br />
glufosinate, or combinations of all<br />
three herbicides.<br />
CURRENT STATUS<br />
This project is in Phase III, the<br />
advanced development stage. This<br />
phase involves demonstrated efficacy<br />
of traits in elite germplasm and<br />
development of regulatory data and<br />
obtaining regulatory approvals.<br />
Macon County, Georgia – July 2010<br />
Roundup + Dicamba Pre<br />
Glufosinate delayed early post<br />
VALUE CONSIDERATIONS<br />
2020 Value:
Genuity Bollgard III Cotton<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
The third-generation of<br />
insect control in Bollgard III<br />
is being developed to<br />
provide season-long<br />
protection from the widest<br />
range of caterpillar pests<br />
with multiple modes of<br />
action.<br />
NEED FULFILLED<br />
Insect protection is an important tool<br />
for increasing farmers’ yields and<br />
maintaining fiber quality. This would<br />
be an upgrade for farmers, as the<br />
third-generation of Bollgard<br />
technology. The first-generation<br />
primarily targeted tobacco budworm,<br />
pink bollworm and cotton bollworm;<br />
the second-generation added a<br />
second Bt gene to include beet and<br />
fall armyworms and bolster<br />
protection against resistance.<br />
Bollgard III will ensure that all of the<br />
insects targeted by the first- and<br />
second-generation products are<br />
controlled by multiple proteins,<br />
ensuring maximum efficacy with a<br />
diversity of insecticidal proteins.<br />
CURRENT STATUS<br />
This project is in Phase II, early product<br />
development, which includes<br />
conducting lab and field testing of<br />
genes in plants to select commercial<br />
product candidates and meet<br />
regulatory requirements.<br />
Third Instar Fall Armyworm Assay<br />
Greenhouse – April 2010<br />
Control<br />
VALUE CONSIDERATIONS<br />
2020 Value:
PRODUCT CONCEPT<br />
Drought-tolerant cotton is<br />
designed to minimize risk in<br />
cotton farming by providing<br />
yield stability in environments<br />
experiencing occasional or<br />
consistent water stress and<br />
reduce water needs on<br />
irrigated acres.<br />
NEED FULFILLED<br />
Drought-tolerant cotton would offer<br />
farmers a compelling way to produce<br />
more yield while maximizing valuable<br />
available water. Most cotton acres<br />
experience some degree of water<br />
stress during the growing season, and<br />
water is one of the major limiting<br />
factors in agriculture production. This<br />
product would enable farmers to<br />
achieve more consistent yields.<br />
CURRENT STATUS<br />
The project is in Phase I, the proof of<br />
concept phase. A number of gene<br />
leads are being evaluated in the field<br />
under stress and non-stress conditions.<br />
This product is considered to be the<br />
first generation in a family of stress<br />
tolerance traits.<br />
Drought-Tolerant Cotton<br />
Part of the Drought-Tolerant Cotton Family<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
Shallowater, TX – September 2009<br />
With Gene Control<br />
VALUE CONSIDERATIONS<br />
2020 Value: To be decided when project<br />
enters Phase II<br />
Launch Country: U.S.<br />
Launch<br />
Country Acres:<br />
Additional<br />
Geographic<br />
Opportunity:<br />
8M-11M<br />
India, Australia,<br />
Brazil<br />
Drought-tolerant cotton is expected to<br />
reduce crop losses on dry-land acres, to<br />
increase yield under periodic drought<br />
conditions and to reduce water costs on<br />
irrigated acres.<br />
PART OF THE MONSANTO-BASF YIELD<br />
AND STRESS R&D COLLABORATION<br />
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PRODUCT CONCEPT<br />
This product would extend the<br />
spectrum of cotton insect control to<br />
lygus bugs, piercing, sucking insects<br />
that damage bolls and reduce<br />
overall plant health and yield.<br />
NEED FULFILLED<br />
Insect protection is an important tool<br />
for increasing farmers’ yields and<br />
maintaining fiber quality. The Lygus<br />
genus consists of several species, all<br />
with a piercing and sucking feeding<br />
habit that causes damage to<br />
reproductive tissues in cotton,<br />
damaging boll development.<br />
Historically managed to some extent by<br />
the heavy insecticide sprays used to<br />
control worms, this pest has emerged<br />
as the next unmet need in cotton<br />
production in the wake of the great<br />
success of Bollgard and Genuity<br />
Bollgard II.<br />
CURRENT STATUS<br />
The project is in Phase I of our pipeline,<br />
the proof of concept phase. Active<br />
proteins have been identified and gene<br />
leads are being advanced for testing in<br />
cotton.<br />
Cotton Lygus Control<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
without Protein with Protein<br />
Artificial Diet Assay<br />
VALUE CONSIDERATIONS<br />
To be decided when project enters Phase II<br />
According to Mississippi State University<br />
researchers, lygus bugs infested half of<br />
the U.S. cotton crop in 2006. Lygus<br />
infestations reached historic highs in 2007<br />
in the mid-South with an average cost of<br />
approximately $30 per acre to control the<br />
pest. Lygus is now the most damaging<br />
insect to U.S. cotton.<br />
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Genuity Roundup Ready 2 Canola<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
This second-generation weedcontrol<br />
trait aimed at providing<br />
farmers with greater flexibility<br />
and improved weed control.<br />
Farmers would have a wider<br />
window of application – up to<br />
first flower – at a higher<br />
application rate of Roundup<br />
herbicide enabling them to<br />
control tough-to-kill perennial<br />
weeds in their canola fields.<br />
NEED FULFILLED<br />
Improved and more flexible weed<br />
control would give farmers the<br />
opportunity to help ensure yieldrobbing<br />
weeds are removed at the<br />
optimal time.<br />
CURRENT STATUS<br />
This project is in Phase III, the<br />
advanced development stage. This<br />
phase involves demonstrated efficacy<br />
of traits in elite germplasm and<br />
development of regulatory data and<br />
obtaining regulatory approvals.<br />
Leduc, Alberta – 2009<br />
Roundup Ready Roundup Ready 2<br />
VALUE CONSIDERATIONS<br />
2020 Value:
Higher-Yielding Canola<br />
DISCOVERY PHASE I PHASE II PHASE III PHASE IV<br />
PRODUCT CONCEPT<br />
This product would provide<br />
farmers with enhanced yields<br />
with a target of a 10 percent<br />
yield increase compared with<br />
second-generation Roundup<br />
Ready canola.<br />
NEED FULFILLED<br />
Higher yields are important as<br />
population expands and as canola<br />
growers look to meet growing demand<br />
for biodiesel and cooking oils. Higheryielding<br />
canola would create additional<br />
harvestable yield for farmers,<br />
increasing their productivity.<br />
CURRENT STATUS<br />
This project is in Phase II, early<br />
development. This includes conducting<br />
lab and field testing of genes in plants<br />
to select commercial product<br />
candidates and to identify the best<br />
performing events to advance to<br />
regulatory trials.<br />
Oriska, ND – 2008<br />
VALUE CONSIDERATIONS<br />
2020 Value:
Background:<br />
The Tools of Our Innovation<br />
At the heart of our business is our science. But translating science into<br />
innovation — elevating basic research into breakthrough discovery —<br />
does not come easily. Success in research is the product of<br />
commitment. It requires that many elements work in concert to do<br />
more and to do it faster. <strong>Monsanto</strong>’s leadership in research exists<br />
because we have the dedicated people, cutting-edge tools, and<br />
proven experience to make science work in new ways for agriculture.<br />
In this section, we break down the tools of innovation and show you<br />
the sophisticated interaction between these tools as they are applied<br />
to bring new products forward in a company that sells seeds and traits.<br />
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DEFINITION<br />
Germplasm<br />
Germplasm is the genetic raw material contained in all the plants of a species. Within<br />
the germplasm are the basic characteristics that make plants what they are. Breeding is<br />
based on using germplasm to find the best combinations of characteristics that can make<br />
plants perform better.<br />
GERMPLASM IS THE BUILDING BLOCK OF MONSANTO’S SEEDS-AND-TRAITS BUSINESS<br />
To many people, seed is seed. Not so for farmers. Every type of seed is different. The<br />
characteristics a corn farmer in Iowa needs in his seed may be vastly different than the<br />
characteristics a corn farmer needs in Colorado. In fact, the characteristics the Iowa<br />
farmer needs are less likely to come from corn in Iowa than from places like Asia or<br />
South America.<br />
GERMPLASM IS IMPORTANT TO MONSANTO<br />
Seed germplasm in crops is analogous to bloodstock in thoroughbred race horses.<br />
Thoroughbred breeders breed the fastest race horses to get the benefit of their genes<br />
into the next generation. In the same way, seed breeders tap into the best pool of genes<br />
to create even better seed combinations. We target characteristics such as disease<br />
tolerance, heat and cold tolerance, and high yield potential to create a seed package that<br />
gives farmers reliable yield and boosts their profitability. Our germplasm bank —<br />
assembled from six continents and across all our crop areas — has greater breadth and<br />
depth than any other germplasm bank in the industry. Every year, our breeders<br />
exchange more than a million different “packages” of germplasm material, creating a<br />
global network to breed seed for local farmers. The strength of our germplasm allows us<br />
to deploy the other tools in our arsenal to breed the highest-performing products, which<br />
are the commercial gems.<br />
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DEFINITION<br />
Genomics<br />
Genomics is one of the tools we use to mine germplasm. We find the best combinations<br />
of characteristics that can be bred or introduced into plants for better products.<br />
Genomics allows us to map the genes of a plant to understand their structure and the<br />
role they play in the plant’s function.<br />
GENOMICS PROBES GERMPLASM TO UNLOCK ITS VALUE<br />
Using automated, high-volume screening, we sequence literally hundreds of thousands<br />
of different genes. Everything else in the technology toolbox stems from the genomics<br />
blueprint of a plant. The map of a plant’s genome sets in motion two research pathways.<br />
First, gene sequencing can identify very specific genes and their potential function.<br />
Those genes become targets for new traits, fueling our biotechnology research. Second,<br />
these maps provide insight into the order and relationships of certain sequences of<br />
genes. Through testing, those relationships yield markers that provide virtual signposts<br />
for certain characteristics. Breeders can use those markers within the germplasm to<br />
identify the best commercial prospects.<br />
HOW GENOMICS APPLIES TO BIOTECHNOLOGY<br />
Fundamentally, we search for new product opportunities by working backwards from a<br />
problem. We first identify a need and then look for ways we can use our tools to address<br />
it. As we learn about the function of particular genes through many different<br />
components of genomics function — including sequence analysis, expression profiling,<br />
phenotypic data analysis, and systems biology — we uncover genes that can become<br />
targets to address a particular problem. Genomics provides us with the tools and<br />
methods to characterize genes from a variety of sources and assign the relevant function<br />
based on their sequence characteristics. Using our biotechnology tools, we can introduce<br />
these genes into the crops where they can make a difference.<br />
The automated systems central to genomics work have revolutionized almost every<br />
aspect of our research work. We’ve brought a new level of standardization to everything<br />
from the tools that make genes perform better to the quality testing we do to evaluate<br />
product candidates.<br />
HOW MARKERS WORK<br />
Markers are simply pieces of DNA that indicate where genes are located. Through<br />
sequencing, we generate tens of thousands of random markers. Through breeding<br />
experiments, we can start correlating those random markers with specific traits. We<br />
basically create an idealized map of a crop plant, identifying the markers for the key<br />
traits we want to breed for. Then we screen our germplasm against the idealized map, so<br />
our breeders can find the germplasm with the unique combinations of genes that will<br />
deliver the traits they need.<br />
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DEFINITION<br />
Breeding<br />
Breeding is the process of cross-pollinating plants with desirable qualities to develop<br />
improved plants in successive generations that combine all the desirable traits in a single<br />
individual. Molecular breeding is an enhanced tool that involves the use of DNA markers<br />
for genes in combination with physical measurement of traits to accelerate selection in<br />
plant breeding programs. Breeding, as we use the term, encompasses both conventional<br />
breeding and molecular breeding — or marker-assisted breeding. Breeding is one of the<br />
two core platforms of <strong>Monsanto</strong>’s technology pipeline.<br />
NEW APPROACHES HAVE REINVENTED BREEDING<br />
Breeding is a shorthand term that encompasses a variety of approaches that can be used to<br />
refine germplasm to select the best attributes that exist within a crop’s genetic stock. Our<br />
plant breeders select desirable traits from our unique germplasm library and combine<br />
them into a single crop plant with commercial potential.<br />
HOW BREEDING IS DIFFERENT TODAY<br />
For thousands of years, plant breeders have skillfully identified and selected plants with<br />
the best properties for cultivation. Traditional plant breeding methods have been effective,<br />
but they are slow.<br />
Today, the use of breakthrough new technology has reinvented plant breeding. In the<br />
same time it used to take for traditional breeding work, our plant breeders can more than<br />
double the rate of “genetic gain” – the improvement in important characteristics such as<br />
yield and tolerance to environmental stress.<br />
With the application of technology like computer databases, molecular markers, and the<br />
tools of analytics, breeders improve the predictability in the inheritance of traits from<br />
generation to generation. This predictability has made breeding more efficient than at any<br />
other point in history. For us, the tools of molecular breeding have entirely replaced the<br />
notion of “conventional” or traditional breeding. Our standard for breeding is molecular<br />
breeding.<br />
HOW BREEDING TRANSLATES INTO COMMERCIAL SUCCESS<br />
Breeding technology today allows our plant breeders to make more informed decisions<br />
earlier in the process. So, by the time they get into field trials, we’ve already pre-screened<br />
and eliminated the least powerful breeding stock. That allows us to focus on the<br />
germplasm that has the best potential for offering a commercially viable combination of<br />
desirable traits.<br />
The probability of finding the most effective combination of genes for a single trait<br />
controlled by just 20 genes is less than one in a trillion. With markers and other breeding<br />
technologies, however, we can get to that best combination faster, improving those onein-a-trillion<br />
odds to as good as one in five.<br />
The upshot is that we identify better products faster. Compared with conventional<br />
breeding, our breeding program today, is doubling the rate of improvement in key genetic<br />
characteristics such as yield and important agronomic traits.<br />
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DEFINITION<br />
Biotechnology<br />
Biotechnology is the application of scientific knowledge to transfer beneficial genetic<br />
traits to enhance plants’ growth or to provide nutritional or other benefits to farmers,<br />
food and feed processors, or consumers. Biotechnology is also one of <strong>Monsanto</strong>’s two<br />
core technology research platforms.<br />
TARGETING SPECIFIC OPPORTUNITIES WITH MODERN BIOTECHNOLOGY<br />
Biotechnology has become shorthand for an extensive process that begins with the<br />
discovery of a new gene, proceeds through the introduction of genes into plants and<br />
through the extensive testing and regulatory review, and culminates in the delivery of<br />
breakthrough products. Biotechnology has led to entirely new products, that have not<br />
been available in agriculture until the last decade.<br />
<strong>Monsanto</strong> pioneered the application of biotechnology to agriculture. For a decade now,<br />
biotechnology traits have been used commercially around the world, establishing a<br />
record of proven benefits for farmers, consumers and the environment.<br />
WHERE DOES BIOTECHNOLOGY OFFER THE MOST VALUE?<br />
With biotechnology, we’re able to identify a particular trait that accomplishes something<br />
that may not be as efficiently possible by breeding or other means. For instance,<br />
scientists can identify and target genes that occur in nature that work against a particular<br />
insect. While those genes may not exist in the crop of interest, we can use the tools of<br />
modern biotechnology to refine and introduce that gene into a crop so that crop can also<br />
reap the advantage of insect protection.<br />
That same targeted approach allows us to develop healthier oils for consumers, highervalue<br />
food and feed for processors, and even more traits that help make farmers more<br />
productive and profitable.<br />
WHAT MAKES BREEDING AND BIOTECHNOLOGY COMPLEMENTARY?<br />
The dual platforms of breeding and biotechnology offer us a choice as we approach a<br />
product concept. Breeding is largely oriented toward improving the overall package of<br />
genetic base of a crop. Biotechnology is uniquely focused on identifying a particular trait<br />
that produces a desired result more efficiently than would be possible just by combining<br />
the existing genetics in a crop type.<br />
Often we can investigate a potential target through both biotechnology and breeding.<br />
Then, depending on what we’re hoping to accomplish and which particular research<br />
pathway shows more promise, we may chose one platform to pursue. We may also<br />
choose to use both — combining specialized germplasm developed through breeding<br />
with a biotechnology trait. So, the advantage in having both platforms is that we’re<br />
perfectly positioned to match the right approach with the right opportunity.<br />
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