DOCUMENT RESUME ED 449 378 CE 081 349 AUTHOR Selfridge, Deborah J. TITLE Common Ground: Agriculture for a Sustainable Future. Lesson Plans. INSTITUTION National Council for Agricultural Education, Alexandria, VA. PUB DATE 1996-00-00 NOTE 98p.; Video (1993) and pamphlet not available from ERIC. "Funded as a special project of the National FFA Foundation by Monsanto Crop Protection." AVAILABLE FROM Ohio Agricultural Education Curriculum Materials Service, The Ohio State University, 254 Agricultural Administration Building, 2120 Fyffe Road, Columbus, OH 43210-1067; Tel: 614-292-4848 (Catalog #0219G; $11.95). PUB TYPE Guides Classroom Teacher (052) EDRS PRICE MF01/PC04 Plus Postage. DESCRIPTORS Academic Education; *Agricultural Education; Agriculture; Behavioral Objectives; Biotechnology; Chemistry; *Competency Based Education; Decision Making; Developed Nations; Developing Nations; Economic Development; Educational Games; Educational Resources; Farm Management; Genetic Engineering; Global Approach; Guidelines; Herbicides; High Schools; Horticulture; Innovation; Integrated Curriculum; International Cooperation; International Trade; Learning Activities; Lesson Plans; Pesticides; Plant Propagation; Problem Solving; Resource Materials; Soil Conservation; *Sustainable Development IDENTIFIERS Global Economy ABSTRACT This document contains lesson plans for a four-unit course in agriculture for sustainable development and is accompanied by .a video tape and a booklet that discusses existing and future agricultural practices. Each unit of the document contains some or all of the following components: an introduction; objectives and competencies addressed; a list of equipment, supplies, references, and other resources; three or four learning activities; a question-and-answer game based on the format of the television game show "Jeopardy"; problem-solving techniques; illustrations of agricultural operations; material safety data sheet examples; and sample newspaper articles. The topics of the four units are as follows: (1) sustainable agriculture (investigation and analysis of agricultural practices as related to conservation tillage and best management practices); (2) innovative chemistry and conservation tillage (advantages and disadvantages of pesticide applications and the interrelationship of herbicide use with conservation tillage); (3) genetically improved plants (implications of genetically improved plants to our society and for agriculture on a global basis); and (4) Third World impact and global stability (the economic importance and interdependency of agriculture throughout the world). (MN) Reproductions supplied by EDRS are the best that can be made from the original document.
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DOCUMENT RESUME
ED 449 378 CE 081 349
AUTHOR Selfridge, Deborah J.TITLE Common Ground: Agriculture for a Sustainable Future. Lesson
Plans.
INSTITUTION National Council for Agricultural Education, Alexandria, VA.PUB DATE 1996-00-00NOTE 98p.; Video (1993) and pamphlet not available from ERIC.
"Funded as a special project of the National FFA Foundationby Monsanto Crop Protection."
AVAILABLE FROM Ohio Agricultural Education Curriculum Materials Service,The Ohio State University, 254 Agricultural AdministrationBuilding, 2120 Fyffe Road, Columbus, OH 43210-1067; Tel:614-292-4848 (Catalog #0219G; $11.95).
PUB TYPE Guides Classroom Teacher (052)EDRS PRICE MF01/PC04 Plus Postage.DESCRIPTORS Academic Education; *Agricultural Education; Agriculture;
ABSTRACTThis document contains lesson plans for a four-unit course
in agriculture for sustainable development and is accompanied by .a video tapeand a booklet that discusses existing and future agricultural practices. Eachunit of the document contains some or all of the following components: anintroduction; objectives and competencies addressed; a list of equipment,supplies, references, and other resources; three or four learning activities;a question-and-answer game based on the format of the television game show"Jeopardy"; problem-solving techniques; illustrations of agriculturaloperations; material safety data sheet examples; and sample newspaperarticles. The topics of the four units are as follows: (1) sustainableagriculture (investigation and analysis of agricultural practices as relatedto conservation tillage and best management practices); (2) innovativechemistry and conservation tillage (advantages and disadvantages of pesticideapplications and the interrelationship of herbicide use with conservationtillage); (3) genetically improved plants (implications of geneticallyimproved plants to our society and for agriculture on a global basis); and(4) Third World impact and global stability (the economic importance andinterdependency of agriculture throughout the world). (MN)
Reproductions supplied by EDRS are the best that can be madefrom the original document.
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Common Ground:Agriculture for a Sustainable Future
Deborah J. SelfridgeSelfridge & Associates
Jay L. Eudy, Acting AdministratorNational Council for Agricultural Education
Under the direction of
William D. Waidelich, DirectorOhio Agricultural Education
Curriculum Materials ServiceThe Ohio State University
A project of the National Council for Agricultural Education funded as a specialproject of the National FFA Foundation by Monsanto Crop Protection
Copyright 0 1996
Ohio Agricultural Education Curriculum Materials ServiceThe Ohio State University
National Council for Agricultural Education
All rights reservedOhio Agricultural Education Curriculum Materials Service
The Ohio State University254 Agricultural Administration Building
2120 Fyffe RoadColumbus, Ohio 43210-1067
1996
BEST COPY AVAILABLE
ACKNOWLEDGMENTS
Special thanks is extended to the following for their invaluable contributions andsupport in the development of these lesson plans:
Kerry T. Webster for his technical assistance.
The Air & Waste Management Association (AWMA) for providing the environ-mental resource materials presented.
William D. Waidelich, Director of Ohio Agricultural Education CurriculumMaterials Service, for serving as Project Director. Also Muriel King for editingthe manuscript and preparing it for print, and Amelia Boye for the cover design.
We also gratefully acknowledge the educational value of the game showJEOPARDY!, the format of which we used in this publication. "JEOPARDY!" isproduced by Columbia TriStar Television, a Sony Pictures Entertainment Company,and is distributed worldwide by King World Productions, Inc.
The Ohio Agricultural Education Curriculum Materials Service, as a part of The Ohio State University, is an equalopportunity employer and does not discriminate against any individual for reasons of race, color, creed, religion,national origin, sex, or handicap. All instructional materials are available to all potential clientele on a non-discriminatory basis without regard to race, color, creed, religion, national origin, sex, or handicap.
Trade or brand names mentioned in these lesson plans are supplied with the understanding that no discriminationor endorsement by the Ohio Agricultural Education Curriculum Materials Service is implied or intended.
4
UNIT CONTENTS
Unit 1 SUSTAINABLE AGRICULTURE 19 pagesInvestigation and analysis of agricultural practices as related to conservation tillageand best management practices (BMPs)
Activity 3 Best Management Plan (BMP) Design 7Jeopardy! Board 9Problem-Solving Techniques 11
Illustrations of Agricultural Operations 16
Unit 2 INNOVATIVE CHEMISTRY AND CONSERVATION TILLAGE 27 pagesAdvantages and disadvantages of pesticide applications and the interrelationshipof herbicide use with conservation tillage
Activity 2 Identification and Analysis of Common Agricultural Pests 4Activity 3 Evaluation of a Material Safety Data Sheet (MSDS) 5Activity 4 Jeopardy!-like Game 6Pesticide Registration Exercise 7Jeopardy! Board 11
Problem-Solving Techniques 13
Material Safety Data Sheet Examples 18
Unit 3 GENETICALLY IMPROVED PLANTS 17 pagesImplications of genetically improved plants to our society and for agriculture on aglobal basis
Introduction and Objectives 1
Resources 2Activity 1 Introduction of Genetically Improved Plants on a Global Basis . . 3
Activity 2 Debating the Pros and Cons of Agricultural Biotechnology 5
Unit 4 THIRD WORLD IMPACT AND GLOBAL STABILITY 17 pagesEconomic importance and interdependency of agriculture throughout the world
Introduction and Objectives 1
Resources 2Activity 1 Ag Around the World: Crops, Production Practices, Imports/Exports 3
Activity 2 Agricultural Importing and Exporting 4Activity 3 The Domino Effect 5
Activity 4 Jeopardy!-like Game 6Agriculture Around the World: Crops, Production Practices,Imports/Exports - Exercise 7
Jeopardy! Board 10
Problem-Solving Techniques 12
Program: Common Ground: Agriculture for a Sustainable FutureUnit 1: Sustainable Agriculture
InveStigation and analysis of agriculturalpractices asrelated to conservation tillage and
best management pradtices (BMPs)
Competency/Terminal Performance ObjectiveI
of thesustain-
Given examples, assess current agricultural practices in four different regionsU.S. and design for each a best management plan (BMP) which implementsable agriculture practices.
Managing Residue to Reduce Erosionslide series available from OhioAgricultural Education CurriculumMaterials Service, 254 AgriculturalAdministration Bldg., 2120 Fyffe Rd,Columbus, OH 43210-1067
Situation
These activities are designed for students in grades 9-12.
8Sustainable Agriculture 2
Common Ground: Agriculture for a Sustainable Future
The activities can be doneas stand-alone units or insuccession to build dataand information cumula-tively. If done in succes-sion, they set the stage forthe final activity, whichutilizes concepts andsolutions arrived at inactivities #1 and #2 andthe problem-solvingstudent worksheets.
Advance Preparation
Prepare the Jeopardy!board by cutting 30 3x5inch windows spaced oneinch apart for game catego-ries and answers. Save thecutout windows to serve asflap covers for the answerportions. There will be 5windows across the top forcategories and an addi-tional 5 windows beloweach of these for answers.Answers for each categorywill be designated pointvalues of 10, 20, 30, 40and 50. Attach the secondposter board to the firstwith Velcro dots or tape.Tape together the answersheets provided and slidebetween the two posterboards. Reattach the flapsover the answers by tapingeach across the top to serveas a hinge. Use the mark-ing pen to designate pointvalue on each of theanswer flaps.
ACTIVITY 1Jeopardy/ -like Game
Interest Approach
Pique the students' interest using the Dust Bowl of the1920s and 1930s as an example. Discuss how poorfarming techniques contributed to severe soil erosion andnutrient depletion, hampered further by poor economictimes and drought conditions. Survey the students to findout what they think about today's farming techniques andwhere agriculture is headed in the future.
Teaching Procedure
Playing the game: Divide the students into 2 or 3groups. Provide the person at the head of each line withthe buzzer or bell. Flip a coin to determine which groupmakes the first selection. Open the flap selected toexpose the answer. The first person to ring the buzzergets to respond by providing a question for the revealedanswer. (Note: In many cases, there may be more thanone correct question to a given answer.) The first personwith the correct question scores the value on the flap. Awrong question results in a deduction of the value on theflap. When all flaps are exposed, the highest score wins!
9
(continued)
Sustainable Agriculture 3
Common Ground: Agriculture for a Sustainable Future
The game board can beused for other topics bysimply replacing thecategory/answer sheets onpages 9 and 10 with newones.
ACTIVITY 1 (continued)
Key Terms
1. Best Management Practices (BMPs) an engi-neered structure or management activity or combi-nation of these that eliminates or reduces adverseenvironmental effects of pollutants.
2. Conservation Tillage any tillage practice thatinvolves less soil disturbance and retains moreplant residue on the soil surface than with conven-tional tillage methods.
3. Conventional Tillage - standard method of prepar-ing a seedbed by completely inverting the soil andincorporating the residue with a plow.
4. Erosion wearing away of the earth's surface byrunning water, wind, ice or other geological agents;processes by which material is removed from theearth's surface.
5. Groundwater water that infiltrates into the earthand is stored in the soil and rock below the earth'ssurface.
6. Herbicide a chemical or biological agent that killsplants.
7. Insecticide a chemical or biological agent thatkills insect pests.
8. Non-point source pollution (NPS) pollution thatcannot be traced to a specific point because itcomes from many individual places or a wide-spread area (e.g., urban and agricultural runoff).
9. Pollution prevention the use of processes, prac-tices or products that reduce or eliminate thegeneration of pollutants and wastes, includingthose that protect natural resources through conser-vation or more efficient use of resources.
10. Row-cropping - farming practice of planting cropsin rows, usually between 24 and 42 inches wide;commonly used in growing corn, soybeans andcotton.
10Sustainable Agriculture 4
Common Ground: Agriculture for a Sustainable Future
Based on the informationlearned from playing theJeopardy! game andresearching conservationtillage, activity #2 furtherstimulates students todesign an experimentusing a set box of com-mon everyday materials.This experiment will showhow conservation tillageprevents soil erosion andmoisture loss.
Note:Because of the variabilityin this experiment, youmay find that differentapproaches are taken byeach of the teams.
Challenge the students by setting this up as a teamcompetition to design the best model for teaching theconcept of conservation tillage to a layperson. If pos-sible, invite a guest lecturer to make a presentation to theclass about agricultural practices common to your area.(Consider the Soil Conservation Service, Extensionpersonnel from your local college or university, orgovernment/private industry personnel specializing inagricultural areas.)
Teaching Procedure
Divide the class into 4 or 5 groups and challenge eachgroup to set up a simple, cost-effective model of conser-vation tillage which can be used to demonstrate theconcept. Have the students build this model and demon-strate the results. Provide each group with a supply ofthe materials on the equipment list. To judge the results,invite younger students (or even parents) to a demonstra-tion of the model and devise measurements to ascertaintheir comprehension level for each of the experiments.
Provide the students with the following objective:
Design an experiment that demonstrates the benefits ofconservation tillage in reducing soil erosion and waterpollution.
Data Summary & Analysis
Observe and record the results of the planting techniquesthat demonstrate resource conservation vs. conventionaltillage. When water (simulating rain) is applied to themodel, more sediment should result from the conven-tional tillage method than from the conservation tillagemethod. Discuss how the resource conservation methodmay or may not work in different farming configurationsor in different geographical areas.
(continued)
Sustainable Agriculture - 5
Common Ground: Agriculture for a Sustainable Future
1. Best Management Practices (BMPs) an engi-neered structure or management activity or combi-nation of these that eliminates or reduces adverseenvironmental effects of pollutants.
2. Conservation Tillage any tillage practice thatinvolves less soil disturbance and retains moreplant residue on the soil surface than with conven-tional tillage methods.
3. Conventional Tillage - standard method of prepar-ing a seedbed by completely inverting the soil andincorporating the residue with a plow.
4. Erosion - wearing away of the earth's surface byrunning water, wind, ice or other geological agents;processes by which material is removed from theearth's surface.
5. Groundwater - water that infiltrates into the earthand is stored in the soil and rock below the earth'ssurface.
6. Non-point source pollution (NPS) pollution thatcannot be traced to a specific point because itcomes from many individual places or a wide-spread area (e.g., urban and agricultural runoff).
7. Pollution prevention the use of processes, prac-tices or products that reduce or eliminate thegeneration of pollutants and wastes, includingthose that protect natural resources through conser-vation or more efficient use of resources.
8. Row-cropping - farming practice of planting cropsin rows, usually between 24 and 42 inches wide;commonly used in growing corn, soybeans andcotton.
Sustainable Agriculture 6
12
Common Ground: Agriculture for a Sustainable Future
See pages 16-19. ACTIVITY 3Best Management Plan (BMP) Design
Interest Approach
Set the stage by discussing agriculture around the nationand the environmental concerns associated with Ameri-can agriculture.
Teaching Procedure
Divide students into four groups and assign each groupone of the attached illustrations depicting a typicalagricultural setting in one of four regions of the U.S.Have the students prepare a step-by-step, economicallyviable, best management practice plan that emphasizessoil conservation techniques and uses conservationtillage, crop rotation, contouring, runoff diversion, andother methods. What are the barriers to implementing thisplan? How might they be overcome? Have the studentsdevelop a model demonstrating how they would assessthe effectiveness of the BMP they develop.
Key Terms
1. Best Management. Practices (BMPs) an engi-neered structure or management activity or combi-nation of these that eliminates or reduces adverseenvironmental effects of pollutants.
2. Conservation Tillage any tillage practice thatinvolves less soil disturbance and retains moreplant residue on the soil surface than with conven-tional tillage methods.
3. Conventional Tillage standard method of prepar-ing a seedbed by completely inverting the soil andincorporating the residue with a plow.
4. Erosion - wearing away of the earth's surface byrunning water, wind, ice or other geological agents;processes by which material is removed from theearth's surface.
(continued)
Sustainable Agriculture 7
13
Common Ground: Agriculture for a Sustainable Future
5. Groundwater - water that infiltrates into the earthand is stored in the soil and rock below the earth'ssurface.
6. Non-point source pollution (NPS) - pollution thatcannot be traced to a specific point because itcomes from many individual places or a wide-spread area (e.g., urban and agricultural runoff).
7. Pollution prevention - the use of processes, prac-tices or products that reduce or eliminate thegeneration of pollutants and wastes, includingthose that protect natural resources through con-servation or more efficient use of resources.
8. Row-cropping farming practice of planting cropsin rows, usually between 24 and 42 inches wide;commonly used in growing corn, soybeans andcotton.
9. Contouring - plowing sloped land by goingaround a hill instead of up and down to reduceerosion, control water flow, and increase moisturepenetration.
10. Herbicide a chemical or biological agent thatkills plants.
11. Insecticide - a chemical or biological agent thatkills insect pests.
12. Runoff diversion construction of physical barri-ers such as dikes and ditches or vegetative bufferzones to slow the rate of surface water runoff.
Sustainable Agriculture 8
14
JEO
PAR
DY
! A
NSW
ER
S
Till
age
Syst
ems
Reg
iona
l Dif
fere
nces
It A
ll B
oils
Dow
n to
Eco
nom
ics
Ag
& th
e E
nvir
onm
ent
New
Cha
lleng
es f
orC
onse
rvat
ion
The
tilla
ge s
yste
m w
ith a
tle
ast 3
0% o
f so
il su
rfac
eco
vere
d by
pla
nt r
esid
ue a
fter
plan
ting.
The
are
a of
the
U.S
. with
the
larg
est a
crea
ge (
34M
acr
es)
and
the
high
est p
ropo
rtio
n of
its c
ropl
and
farm
ed w
ithco
nser
vatio
n til
lage
.
The
far
m p
rogr
am in
stitu
ted
inth
e 19
30s
that
dis
cour
ages
man
y co
nser
vatio
n til
lage
and
crop
rot
atio
n pr
actic
es b
yke
epin
g fa
rmer
s fr
om d
iver
sify
-in
g be
yond
cer
tain
cro
ps (
corn
,co
tton
and
whe
at)
with
thei
rhi
gh a
gric
hem
ical
req
uire
men
ts.
The
mos
t com
mon
con
tam
i-na
nt o
f gr
ound
wat
er (
acco
rd-
ing
to U
S E
PA);
pre
sent
in52
-57%
of
com
mun
ity a
ndpr
ivat
e w
ells
nat
ionw
ide.
Thi
s bi
ll, p
asse
d in
198
5, w
asai
med
at p
reve
ntin
g er
osio
n on
the
natio
n's
wor
st f
arm
land
.
The
tilla
ge s
yste
m w
ith s
oil
left
und
istu
rbed
bef
ore
plan
ting,
whi
ch is
com
plet
edin
a n
arro
w s
eedb
ed; w
eeds
cont
rolle
d w
ith h
erbi
cide
s.
The
two
mai
n co
nsid
erat
ions
for
the
regi
onal
dif
fere
nces
inho
w m
uch
cons
erva
tion
tilla
ge is
pra
ctic
ed.
The
cos
ts th
at f
arm
ers
are
not
char
ged
for,
giv
ing
them
littl
ein
cent
ive
to c
urta
il ac
tiviti
esth
at a
dver
sely
impa
ct th
een
viro
nmen
t.
The
law
kno
wn
as F
IFR
A,
whi
ch r
egul
ates
sal
e an
d us
eof
pes
ticid
es, b
ut d
oes
not
spec
ific
ally
add
ress
pes
ticid
epo
llutio
n of
wat
er s
uppl
ies.
Lan
d ar
eas
com
pris
ing
14%
of
the
farm
land
, on
whi
ch a
lmos
t30
% o
f U
.S. a
gric
ultu
ral p
ro-
duct
ion
occu
rs; d
ue to
loca
-tio
n, m
uch
of th
is f
arm
land
islo
st e
ach
year
to d
evel
opm
ent.
The
tilla
ge s
yste
m w
ith s
oil
left
und
istu
rbed
bef
ore
plan
ting,
whi
ch is
com
plet
edin
a s
eedb
ed p
repa
red
on a
ridg
e; w
eeds
con
trol
led
with
herb
icid
es a
nd c
ultiv
atio
n(r
idge
s re
built
).
The
are
a of
the
U.S
. whe
reco
nser
vatio
n til
lage
is a
maj
orad
vant
age
with
win
ter-
seed
edgr
ain,
kee
ping
soi
l tem
pera
-tu
res
in w
inte
r ab
ove
the
leve
lof
sev
ere
crop
dam
age.
Tw
o di
sinc
entiv
es f
orad
optio
n of
mor
e ef
fici
ent
irri
gatio
n sy
stem
s.
The
type
of
pollu
tion
that
cann
ot b
e tr
aced
to a
sin
gle
sour
ce a
nd is
a m
ajor
pro
blem
rela
ted
to a
gric
ultu
ral a
ctiv
ity.
Kin
d of
land
sub
ject
toco
nser
vatio
n co
mpl
ianc
e;co
mpr
ises
ove
r 11
8 m
illio
nac
res
and
mor
e th
an 2
5% o
fth
e na
tion'
s fa
rmla
nd.
The
tilla
ge s
yste
m w
ith s
oil
left
und
istu
rbed
bef
ore
plan
t-in
g; ti
llage
in r
ow a
t pla
ntin
gtim
e do
ne w
ith r
otot
iller
, in-
row
chi
sel,
row
cle
aner
s, e
tc.;
herb
icid
es a
nd c
ultiv
atio
n us
edto
con
trol
wee
ds.
Typ
e of
land
slo
w to
ado
ptco
nser
vatio
n til
lage
bec
ause
of
conc
ern
that
pla
nt r
esid
ue w
illre
tard
wat
er f
low
and
cau
sedi
ffer
ence
s in
wat
er c
over
age
betw
een
uppe
r an
d lo
wer
par
tsof
the
fiel
d.
Mos
t Am
eric
ans
wou
ld b
ew
illin
g to
pay
5-1
0% m
ore
for
food
with
this
.
In 1
987,
this
sta
te le
d th
ena
tion
in a
gric
ultu
re a
nd in
the
sale
of
580M
pou
nds
ofpe
stic
ide
activ
e in
gred
ient
s.
The
maj
or p
robl
em c
ause
d by
non-
poin
t pol
lutio
n, w
ith it
sun
know
n so
urce
s.
The
tilla
ge s
yste
m w
ith s
oil
surf
ace
dist
urbe
d be
fore
plan
ting;
sam
e eq
uipm
ent
used
as
in c
onve
ntio
nal t
illag
e(e
xcep
t for
mol
dboa
rd p
low
);w
eeds
con
trol
led
by h
erbi
-ci
des
and
culti
vatio
n.
The
two
maj
or f
acto
rs th
atde
term
ine
the
diff
eren
ces
betw
een
agri
cultu
ral r
egio
ns o
fth
e U
.S.
Thr
ee a
reas
that
are
key
deci
sion
var
iabl
es f
orA
mer
ican
con
sum
ers
in th
eir
purc
hase
of
food
.
Tw
o of
the
thre
e st
rate
gies
for
biol
ogic
al c
ontr
ol th
at u
sepa
rasi
tes,
pre
dato
rs, a
nd p
ath-
ogen
s to
mai
ntai
n pe
st p
opu-
latio
ns a
t lev
els
that
do
not
caus
e un
acce
ptab
le e
cono
mic
or a
esth
etic
dam
age.
The
gro
up o
f pl
ants
con
side
red
spec
ializ
ed v
eget
atio
n an
dus
ed to
com
bat w
ind
and
wat
erer
osio
n. A
bout
78
vari
etie
spr
oduc
ed c
omm
erci
ally
;de
velo
ped
from
ger
mpl
asm
of
fore
ign
orig
in.
1516
JEO
PAR
DY
! Q
UE
STIO
NS
Till
age
Syst
ems
Reg
iona
l Dif
fere
nces
It A
ll B
oils
Dow
n to
Eco
nom
ics
Ag
& th
e E
nvir
onm
ent
New
Cha
lleng
es f
orC
onse
rvat
ion
Wha
t is
cons
erva
tion
tilla
ge?
Wha
t is
the
Cor
n B
elt?
Wha
t is
the
farm
sub
sidy
prog
ram
?W
hat a
re n
itrat
es?
Wha
t is
the
1985
Far
mB
ill?
Wha
t is
no-t
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our
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1718
Common Ground: Agriculture for a Sustainable Future
Steps/Key PointsProblem-Solving Technique
Define the Problem
What is conservation tillage? How do soil erosion and moisture loss occur? What arethe factors needed to ensure that conservation tillage techniques are successful?
What to Do (Steps) How to Do It (Key Points)
Decision/Recommendation
Students should conclude that conservation tillage is an acceptable and effective tech-nique for growing crops. Because of its low impact approach, soil erosion and moistureloss are minimized, thus ensuring a more productive growing environment. Two factorswhich help to ensure the success of conservation tillage are proper equipment andtraining and appropriate use of herbicides (with application timing being crucial).
Sustainable Agriculture 11
19
Common Ground: Agriculture for a Sustainable Future
Situation-to-Be-ImprovedProblem-Solving Technique
Define the Problem
soil type, climate, common cultural practices, andare necessary to optimize the use of conservation tillage.
tillage is not a viable alternative?
Taking into account topography,cost, determine what factorsAre there cases where conservation
Character-istics to BeConsidered
What Why CurrentSituation
Recommen-dations
Decision/Recommendation
land that is well drained, with deep soil and norock, is best suited for conservation tillage.
and drainage, or climatic conditions lend them-a viable alternative. Land not suitable for conservation
sloping land, overgrazed land, and very aridAreas with high insect infestation (such as cotton
concentrations) are also unsuitable for conservation
Students should conclude that levelphysical impediments like outcroppingAlso, not all topography, soil typesselves to conservation tillage astillage includes shallow soil, severelyregions where irrigation is necessary.in areas with large pink bollwarmtillage.
Sustainable Agriculture 12
20
Common Ground: Agriculture for a Sustainable Future
Possibilities - FactorsProblem-Solving Technique
Define the Problem
What are the environmental and economic trade-offs involved in the decision to usethe sustainable agriculture approach? Determine the environmental implications of awell-designed and implemented agricultural management plan (involving such topicsas non-point source pollution, groundwater contamination, wildlife protection, etc.).
Factors to Consider Possibilities (Possible Solutions)
Decision/Recommendation
Students may conclude that initial costs for existing farms will be higher due torequirements for new equipment; additional herbicide applications; and setting upbuffer zones, runoff basins and trenches to divert runoff. Environmental trade-offs are1) greater quantities of herbicides applied to the soil in exchange for reduced soilerosion; and, with last year's crop residue on the ground, 2) the need for close monitor-ing of insect populations. A well-designed BMP should minimize groundwater con-tamination and non-point source pollution as well as reduce the likelihood of off -sitecontamination of streams and waterways that directly impact wildlife.
Sustainable Agriculture - 13
21
Common Ground: Agriculture for a Sustainable Future
Forked RoadProblem-Solving Technique
Define the Problem
In a highly competitive global market, what options does the American fanner haveto increase his/her profitability? Given your choices, what options would you choose?Why?
Factors to Consider Choices
Choice One Choice Two
Decision/Recommendation
Conservation tillage may actually reduce the cost of overall crop production and leadto increased yields, making farmers more competitive on the global market. Studentsshould appreciate the factors involved in practicing conservation tillage and understandtheir overall effect on farm profitability.
To increase their profitability, farmers must either increase their output (yields) orincrease the quality of their product so that it commands a higher price. Also, theymust make the most effective use of equipment, pesticides, and fertilizers to make thebest use of their land.
Sustainable Agriculture 14
22
Common Ground: Agriculture for a Sustainable Future
Effect-CauseProblem-Solving Technique
Define the Problem
A fanner has practiced conservation tillage for 10 years now and has found that thecrop yields have decreased over the past 5 years by 2% in year 6, 2.8% in year 7, and3% each in years 8, 9, and 10. If the farmer averaged 97 bushels/acre of corn in thefirst 5 years, what were the yields for each of the past 5 years? What information doyou need in order to determine what the problem is and to provide solutions to thefarmer's dilemma?
Possible Causes Related Facts Accept/RejectCause
Decision/Recommendation
With no method stipulated, students may choose either the simple or compoundmethod to calculate the reduced yield figures. This could be utilized as a point ofdiscussion (for mathematics) for simple vs. compound interest scenarios as well ascalculating percentages.
The farmer's common cultural practices, involving equipment, planting, and pesticideapplication, are needed as well as references to climate, topography, soil type, etc. todetermine possible solutions to the problem.
Sustainable Agriculture - 15
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Program: Common Ground: Agriculture for a Sustainable FutureUnit 2: Innovative Chemistry and Conservation Tillage
Advantages and disadvantages of pesticideapplications and the interrelationship of herbicide use
with conservation tillage
Competency/Terminal Performance Objective
application and evaluate thediseases.
Recognize the advantages and disadvantages of pesticidefarmer's options for controlling insects, weeds, and plant
Define the term pesticide. Describe different types and why they are used.
Recognize the advantages and disadvantages of pesticide application and thelationship of herbicide use with conservation tillage.
Evaluate mechanical, biological, and chemical control of plant pests with regardeconomics, the environment, health, safety, and effectiveness.
Collect and analyze samples of disease damage on plants. Identify and dry mountcommon weed samples; identify and mount common insect specimens.
List information found on a pesticide label.
Develop an awareness of some of the methods used in commercial decision-makingfor pesticide manufacture. Practice skills in the evaluation of evidence and theinformation and data in making decisions.
Understand and be able to discuss the uses for a Material Safety Data Sheetfor a selected pesticide.
Applied Academics Competencies
Communications
History
Mathematics
Science
Innovative Chemistry & Conservation Tillage 1
Common Ground: Agriculture for a Sustainable Future
Equipment, Supplies, References, and Other Resources
Activity #1 - Pesticide RegistrationExercise
student worksheets (attached)
Activity #2 - Identification and Analysisof Common Agricultural Pests
For insects:
1. killing jars
2. labels
3. mounting pins
4. cardboard or Styrofoam mountingboards
5. vinegar
6. baking soda
For weeds:1. 2 glass plates (for pressing specimens
flat)2. cardboard or Styrofoam mounting
boards3. glue
For diseases:
cardboard or Styrofoam mountingboards for leaves, etc. which show
disease effects
Activity #3 - Evaluation of an MSDS
Material Safety Data Sheets (MSDS)(attached)
Activity #4 - Jeopardy!-like Game
1. scissors
2. felt-tipped marker
3. Velcro dots or tape
4. 2 large poster boards (same size)
5. 2 buzzers or bells
REFERENCES/RESOURCES
The following resource materials areavailable from Ohio Agricultural Educa-tion Curriculum Materials Service, 254Agricultural Administration Bldg., TheOhio State University, 2120 Fyffe Road,Columbus, OH 43210-1067:
Agronomy Identification Series slideseries on the identification of cropplants & seeds; weed plants & seeds;and field crop & stored grain insects
Herbicide Mode of Action and InjurySymptoms a manual that providesinformation on soil-applied and post-emergence herbicide activity in plants,herbicide selectivity, and herbicideresistance
Weed Plants spiral-bound book of colorphotographs and descriptions of 40common weed plants
Insect Pests of Field Crops a bulletinthat provides up-to-date informationfor insect pest control in field crops
Integrated Pest Management I:Ecology, Crops and Pests - studentactivity guide with three major activi-ties looking at ecosystems, pest popu-lations, and how pests integrate withone another
Situation
These activities are designed for students in grades 9-12.
Innovative Chemistry & Conservation Tillage 2
33
Common Ground: Agriculture for a Sustainable Future
It is valuable to precedethis activity with a discus-sion of what pesticidesare, their advantages anddisadvantages, and whythey are used. This activ-ity is best if conducted insmall groups of four orfive, with an appointedgroup recorder. At the endof the exercise, a largegroup session can be heldto compare results.Alternatively, groupscould be asked to designposters advertising one ofthe pesticides by incorpo-rating information fromthe activity.
Advance Preparation
It would be useful to havesamples of pest-damagedplants and examples ofcommercial pesticidesavailable for showing theclass along with somesample pesticide labels.
ACTIVITY 1Pesticide Registration Exercise
Interest Approach
Explain the concerns surrounding pest management.Pests destroy approximately one-third of the world'sfood crops annually, making pest management a world-wide problem. Discuss how in ancient times the Romanscombated insects in their stored grains by mixing insilica dust. Today road dust is mixed with the grain insome cultures to protect against grain weevils. The dustacts as an abrasive, causing damage to the insect'sexoskeleton, which can ultimately lead to death. Askstudents to make a quick list of some of the properties ofa good pesticide.
Teaching Procedure
Divide the class into small groups of 4 or 5 students. Pro-vide each group with a copy of the pesticide registrationactivity (pages 7-10). Allow the students one class periodto work on the activity and summarize their results. Havethe recorder for each group present the results in the nextclass period. Open each topic to discussion when all theresults have been presented. Analyze the results of eachgroup and have the students defend their positions. Pro-vide a summary from all groups and discuss the results.
Key Terms
1. Conservation Tillage - any tillage practice that in-volves less soil disturbance and retains more plantresidue on the soil surface than with conventionaltillage methods.
2. Fungicide an agent that kills fungi.3. Herbicide - chemical or biological agent that kills
plants.4. Insecticide chemical or biological agent that kills
insect pests.5. Material Safety Data Sheet (MSDS) required by law,
this data sheet lists the physical and chemical charac-teristics of a compound along with health and safetydata. Disposal information is sometimes included.
6. Pesticide a chemical or biological agent that killsplant or animal pests. Herbicides, insecticides, fungi-cides, and rodenticides are all pesticides.
Innovative Chemistry & Conservation Tillage 3
34
Common Ground: Agriculture for a Sustainable Future
If your school is locatedwhere common agricul-tural weeds, insects anddiseases are easy to find,use the collection proce-dure. If they are notreadily accessible, substi-tute a "paper exercise,"challenging the students tobring in pictures of com-mon agricultural weeds,insects and diseases fordiscussion.
ACTIVITY 2Identification and Analysis of Common
Agricultural Pests
Interest Approach
Talk about the organic approach to farming, what ourlives would be like (society, economics) without the useof pesticides. Invite a professional from a local agricul-tural industry (agrichemical, horticulture, agribusiness,farm) to speak to the class about common practices andpesticide use.
Teaching Procedure
Divide the class into two groups. Assign to one groupthe task of finding 15 weeds and 4 diseases; to the othergroup, 15 insects and 4 diseases. Place the insectscollected into a "killing jar," which has a small amountof baking soda in the bottom. Add vinegar to the bakingsoda to kill the insects. Have each group mount itscollection as appropriate.
Key Terms
1. Conservation Tillage any tillage practice that in-volves less soil disturbance and retains more plantresidue on the soil surface than with conventionaltillage methods.
2. Fungicide - an agent that kills fungi.3. Herbicide chemical or biological agent that kills
plants.4. Insecticide chemical or biological agent that kills
insect pests.5. Material Safety Data Sheet (MSDS) required by law,
this data sheet lists the physical and chemical charac-teristics of a compound along with health and safetydata. Disposal information is sometimes included.
6. Pesticide a chemical or biological agent that killsplant or animal pests. Herbicides, insecticides, fungi-cides and rodenticides are all pesticides.
Innovative Chemistry & Conservation Tillage 4
Common Ground: Agriculture for a Sustainable Future
Make copies of theMaterial Safety DataSheets (pages 18-27) foreach student in the class.
ACTIVITY 3Evaluation of a Material Safety Data Sheet
(MSDS)
Interest Approach
Have students discuss some of the chemicals commonlyused in the home and some of the characteristics andhealth and safety information that they think might beincluded on an MSDS.
Teaching Procedure
Have the students compare the Material Safety DataSheet of a household chemical to that of a pesticide.What are the similarities? What are the differences?Which chemicals are the most toxic? Why?
Key Terms
1. Conservation Tillage any tillage practice that in-volves less soil disturbance and retains more plantresidue on the soil surface than with conventionaltillage methods.
2. Fungicide an agent that kills fungi.3. Herbicide chemical or biological agent that kills
plants.4. Insecticide chemical or biological agent that kills
insect pests.5. Material Safety Data Sheet (MSDS) - required by law,
this data sheet lists the physical and chemical charac-teristics of a compound along with health and safetydata. Disposal information is sometimes included.
6. Pesticide a chemical or biological agent that killsplant or animal pests. Herbicides, insecticides, fungi-cides and rodenticides are all pesticides.
Innovative Chemistry & Conservation Tillage 5
36
Common Ground: Agriculture for a Sustainable Future
If the Jeopardy!-like boardwas already constructed inUnit 1, Activity #1, skipthe advance preparationprocedures and insert thecategory/answer templatelocated on pages 11-12 inthis unit.
Advance Preparation
Prepare the Jeopardy!board by cutting 30 3x5inch windows spaced oneinch apart for game catego-ries and answers. Save thecutout windows to serve asflap covers for the answerportions. There will be 5windows across the top forcategories and an addi-tional 5 windows beloweach of these for answers.Answers for each categorywill be designated pointvalues of 10, 20, 30, 40and 50. Attach the secondposter board to the firstwith Velcro dots or tape.Tape together the answersheets provided and slidebetween the two posterboards. Reattach the flapsover the answers by tapingeach across the top to serveas a hinge. Use the mark-ing pen to designate pointvalue on each of the an-swer flaps.
ACTIVITY 4Jeopardy/ -like Game
Interest Approach
Pique the students' interest by discussing the widespreaduse of DDT in the 1950s and 1960s. For several de-cades, DDT was a very effective insecticide, usedthroughout the world. However, now many countries,including the U.S., have banned the use of DDT. Scien-tific studies conducted over several decades have deter-mined that DDT affects the life cycle of birds, fish, andsome beneficial insects. Today, the pesticides used targetspecific pests and are considerably safer to humans andwildlife. They also degrade faster in the environment.
Teaching Procedure
Playing the game: Divide the students into 2 or 3groups. Provide the person at the head of each line withthe buzzer or bell. Flip a coin to determine which groupmakes the first selection. Open the flap selected toexpose the answer. The first person to ring the buzzergets to respond by providing a question for the revealedanswer. (Note: In many cases, there may be more thanone correct question to a given answer.) The first personwith the correct question scores the value on the flap. Awrong question results in a deduction of the value on theflap. When all flaps are exposed, the highest score wins!
Key Terms
1. Conservation Tillage any tillage practice that in-volves less soil disturbance and retains more plantresidue on the soil surface than with conventionaltillage methods.
2. Fungicide an agent that kills fungi.3. Herbicide chemical or biological agent that kills
plants.4. Insecticide chemical or biological agent that kills
insect pests.5. Material Safety Data Sheet (MSDS) - required by law,
this data sheet lists the physical and chemical charac-teristics of a compound along with health and safetydata. Disposal information is sometimes included.
6. Pesticide - a chemical or biological agent that killsplant or animal pests. Herbicides, insecticides, fungi-cides and rodenticides are all pesticides.
Innovative Chemistry & Conservation Tillage 6
37
Common Ground: Agriculture for a Sustainable Future
Pesticide Registration ExerciseBackground
Before pesticides can be sold and used commercially, they must go through rigor-ous testing over several years. It takes 7 to 10 years to develop a typical chemical pesti-cide at a cost of approximately $80M. This testing includes the following determinations:
O Food products from crops treated with the pesticide are safe to eat.
O The pesticide is safe to use when handled according to the directions on the label.
0 The environment and wildlife are not harmed by using the pesticide.
O The pesticide does not significantly damage the crop.
O The pesticide is effective. That is, when used properly, it does what it claims to do.(This testing, called efficacy, is not currently required by the US EPA, but has beenrequired in the past. It could well be reinstated as a requirement in the future.)
Damage by arthropods (insects, spiders and mites) is a major contributor to croplosses and decreased quality of agricultural products. Based on past history, it is predictedthat arthropod species will increase in number by about 11 each year and that 7 of thosewill become significant pests.
In this hypothetical situation, we are dealing with a new arthropod species namedCornelius devastata or CD. It causes widespread devastation in crops of the brassicafamily (e.g., cabbage, cauliflower, and broccoli). This new pest is a voracious eater; atsufficient population levels, it can completely decimate the crop.
In this exercise, you will wear the hat of an official of the US EPA. You have beenasked to evaluate three new chemical pesticides which have been developed by theagrichemical industry sector to control CD damage in broccoli. For the past four years,broccoli and cauliflower growers have requested a Section 18 permit to use non-labeledpesticides on their crops to prevent widespread crop devastation by this insect. They havehad limited success with using these other pesticides. The three pesticides to be evaluatedare CD-B-Gone, Go-CD, and CD-OFF.
CD-B-Gone is a very effective pesticide; it kills 98% of the CD insects in areaswhere it is sprayed. It is extremely poisonous to humans and animals. A smallamount of it is systemically taken up into the plant, so crop damage from thechemical ranges between 5 and 10%.
Go-CD kills 90% of the CD insects in the treated area. It is not poisonous tohumans, but can kill up to 4% of the earthworms in the treated area. The crop isunaffected by this chemical. It is recommended that 10 days elapse between use ofthe product on the crop and harvesting the crop. Birds find the dead insects unap-petizing and do not eat them.
CD-OFF kills only 50% of the CD insects when sprayed; therefore, frequentapplications are required to get the population under control. This pesticide isharmful to wildlife, but it does not affect the crop.
(continued)
Innovative Chemistry & Conservation Tillage - 7
38
Common Ground: Agriculture for a Sustainable Future
Pesticide Registration Exercise (page 2)
Types of Registration
There are three types of "registrations" which you can give a pesticide. The fourthoption is to refuse registration. Here are the definitions for each type.
1. Experimental Use Permit (EUP) for research trials The pesticide can be used on alimited basis only for research field trials with farmers (small quantities, small plotwork).
2. Emergency Use - Section 18 This is issued only under "emergency" conditions foruse on crops for which the pesticide is not labeled or in states or regions where itsuse may not be permitted. The farmer must demonstrate that he/she will experiencesignificant economic loss if the pest is not brought under control.
3. Full Registration When all the criteria above are met, the US EPA issues thisregistration. The product may now be sold and used commercially.
4. Refuse a Registration - If the product does not meet the specified guidelines ordoes not include sufficient data, the registration request may be refused.
Questions
O Which registration would you give each of the pesticides mentioned on the precedingpage? Give reasons for your answers.
O What additional information do you need (which was not specified) to validate yourdecisions?
O In order to grant an Emergency Use (Section 18) permit, what data would you needfrom the farmer to make this decision?
O If you decide to refuse registration for any of the products, what is the basis for yourrefusal?
Field Trials
Under a research trial experimental use permit, plant field trials are normally carriedout in a replicated block fashion to increase accuracy and validity of the trial. This statis-tical design, called randomized complete block design (RCBD), takes variations in fieldconditions (soil, drainage, etc.) into account, removing some of the variability by averag-ing replicates and then comparing the data against a check or control (untreated plot).
A sample field may look like the one shown on the next page in Figure 1. Note:This illustration is done specifically for this exercise. Since the three products beingconsidered were probably created by different agrichemical companies, each of theproducts would have been compared against the control and a standard (the chemical thatis currently being used commercially for controlling CD, if one exists). All the productsbeing considered, then, would not be in the same trial unless each of the agrichemicalcompanies had provided a university researcher with the experimental compounds to
(continued)
Innovative Chemistry & Conservation Tillage - 8
39
Common Ground: Agriculture for a Sustainable Future
Pesticide Registration Exercise (page 3)
place in a cooperator or university trial. In addition, actual field trials would have beenconducted to look at factors such as application timing, effectiveness of different pesticiderates (dosages), effect of type of application, and so on. Insecticide trials are particularlydifficult to conduct since they are directly dependent upon adequate insect populationpressure to obtain accurate data. In this field trial, there are four replicates and the prod-ucts are randomized within each replicate. The number of dead CDs per square foot isnoted in parentheses ( ) under each pesticide in each plot.
FIGURE 1Replicate 1 Replicate 2
CD-B-Gone(11)
Go-CD(9)
CD-OFF(9)
Control(0)
Control(0)
CD-OFF(6)
Go-CD(16)
CD-B-Gone(17)
CD-OFF(12)
CD-B-Gone(22)
CD-OFF(5)
Control(0)
Go-CD(20)
Control(0)
Go-CD(9)
CD-B-Gone(10)
Replicate 3 Replicate 4
Precount of CDs prior to application revealed an average population of 16 CDs persquare foot. Once the pesticides were applied, dead CDs per square foot numbered from5 to 22.
Next, set up a data chart with the following format and place in it each of the values fromthe replicates in Figure 1. Calculate an average for each of the pesticides.
Pesticide Replicate 1
Data ChartReplicate 2 Replicate 3 Replicate 4 Average
CD-B-Gone
Go-CD
CD-OFF
Control
Look at the data closely. What reason is plausible for the high numbers of dead CDs inReplicate 3?
In the chart on the next page are given the crop damage (tolerance) ratings, whichindicate damaged plants per square foot. These were obtained from the above field trial.Assume that the crop population is relatively consistent at 4 broccoli plants/square yard.
(continued)
Innovative Chemistry & Conservation Tillage - 9
40
Pesticide
Common Ground: Agriculture for a Sustainable Future
Pesticide Registration Exercise (page 4)
Number of Plants Damaged per sq ft
Replicate 1 Replicate 2 Replicate 3 Replicate 4 Average
CD-B-Gone 1 1 2 0
Go-CD 0 0 1 0
CD-OFF 1 0 0 0
Control 0 0 0 0
Calculate the averages for crop tolerance.
Questions
O Do the data for each of the products support the crop tolerance statements made?Why? Or why not?
O What other kinds of trials or tests could you conduct?
O Is it important to know the method by which the pesticides kill or incapacitate the CDinsect? Why would you need to know this information?
Data Summary and Analysis
Students should come to the following conclusions:
CD-B-Gone should be refused a registration. Due to its extreme toxicity to humansand animals, it does not meet U.S. EPA toxicological parameters to allow additionaltesting and/or registration.
Go-CD provides effective control with minimal risk to humans and wildlife, though itmay affect a small percentage of the earthworm population. Students may want toprovide the manufacturer with full trial registration, assuming that all toxicological,wildlife and environmental data have been collected and analyzed. If an emergencysituation arises, this compound would be the best choice for the special emergencyprovision.
CD-OFF is only 50% effective, and the information available states that it is harmfulto wildlife. Students may want to issue a research trial registration to collect addi-tional data and to validate the preliminary findings. It would be helpful to know whatwildlife is affected by the pesticide and how.
Innovative Chemistry & Conservation Tillage 10
41
JEO
PAR
DY
! A
NSW
ER
S
A M
atte
r of
Con
trol
Pest
s, P
ests
, & M
ore
Pest
sA
dapt
or
Die
Pest
icid
e Pa
raph
erna
liaT
he R
&D
Cyc
le
Thr
ee c
ateg
orie
s of
met
hods
that
far
mer
s us
e to
con
trol
pest
s.
The
pro
blem
that
cau
ses
annu
al c
rop
loss
es e
sti-
mat
ed a
t $1.
5 to
$2
billi
on.
The
inte
rest
ing
adap
tive
stra
tegy
sho
wn
by w
eeds
that
thro
ugho
ut h
isto
ryha
ve a
dapt
ed to
agr
icul
tura
lpr
actic
es.
The
fir
st p
lace
to f
ind
info
r-m
atio
n on
app
licat
ion
timin
g, u
tiliz
atio
n on
spec
ific
cro
ps, h
uman
heal
th &
saf
ety,
and
dis
-po
sal i
nstr
uctio
ns f
or a
com
mer
cial
pes
ticid
e.
Tri
als
cond
ucte
d na
tion-
wid
e to
test
a n
ew p
rodu
ctfo
r ef
fica
cy a
nd c
rop
tole
ranc
e.
The
man
agem
ent t
echn
ique
know
n as
IPM
that
isec
olog
ical
ly b
ased
and
envi
ronm
enta
lly c
onsc
ious
in c
ontr
ollin
g pl
ant p
ests
.
The
pro
blem
that
cos
tsfa
rmer
s ap
prox
imat
ely
$5bi
llion
ann
ually
to c
ontr
olon
far
ms
and
in r
ange
land
s,fo
rest
s an
d w
ater
way
s.
The
impo
rtan
t cha
ract
eris
-tic
s of
wee
ds th
at m
imic
agri
cultu
ral c
rops
.
The
she
et k
now
n as
MSD
S,re
quir
ed b
y la
w o
n al
lch
emic
al c
ompo
unds
, tha
tpr
ovid
es h
ealth
and
saf
ety,
disp
osal
, & o
ther
nec
essa
ryin
form
atio
n.
Onc
e re
quir
ed b
y U
S E
PA,
the
indi
catio
n ba
sed
on d
ata
that
a g
iven
pes
ticid
e ha
sth
e ca
pabi
lity
to c
ontr
ol th
eta
rget
ed p
ests
.
The
cru
cial
fac
tor
in th
eef
fect
iven
ess
of a
pes
ticid
ein
con
trol
ling
a pe
st.
The
est
imat
ed p
erce
ntag
eof
loss
in c
rop
valu
e du
e to
wee
ds n
earl
y $1
6 bi
llion
per
year
.
The
wee
d th
at is
the
mos
tse
riou
s ri
val t
o ri
ce a
nd th
em
ost d
iffi
cult
to d
iffe
ren-
tiate
fro
m it
.
The
cla
ssif
icat
ion,
with
spe
-ci
fic
guid
elin
es, t
hat a
chem
ical
mus
t rec
eive
befo
re it
is a
ppro
ved
for
sale
com
mer
cial
ly.
Mea
sure
men
t of
the
amou
ntof
dam
age
to a
cro
p fr
om a
give
n pe
stic
ide.
A g
roup
of
com
poun
dsth
at in
clud
es in
sect
icid
es,
herb
icid
es, f
ungi
cide
s an
dro
dent
icid
es.
Thr
ee tr
aditi
onal
app
roac
hes
to m
anag
ing
pest
pro
blem
s.T
he c
lass
of
orga
nism
s th
atar
e m
ost r
esis
tant
to s
yn-
thet
ic c
hem
ical
age
nts.
The
spe
cial
cla
ssif
icat
ion
of a
pes
ticid
e th
at p
erm
itsits
em
erge
ncy
use
for
asp
ecif
ic c
rop.
The
type
of
exte
nsiv
ete
stin
g of
a p
estic
ide
over
seve
ral y
ears
, tha
t mea
sure
sth
e le
vels
of
safe
ty to
hum
ans
and
wild
life.
The
tech
niqu
es u
sed
topr
edic
t pes
t occ
urre
nce.
The
trai
t of
pest
s th
atco
ntin
ually
com
plic
ates
pest
man
agem
ent.
The
pes
ticid
e no
w o
ut-
law
ed b
ut o
nce
wid
ely
used
; ins
ects
rap
idly
deve
lope
d re
sist
ance
to it
.
Tw
o of
the
reas
ons
that
ane
w p
estic
ide
coul
d be
refu
sed
regi
stra
tion.
The
pre
limin
ary
chec
k of
larg
e nu
mbe
rs o
f co
m-
poun
ds to
det
erm
ine
whe
ther
they
are
pot
entia
lpe
stic
ide
cand
idat
es.
4243
JEO
PAR
DY
! Q
UE
STIO
NS
A M
atte
r of
Con
trol
Pest
s, P
ests
, & M
ore
Pest
sA
dapt
or
Die
Pest
icid
e Pa
raph
erna
liaT
he R
&D
Cyc
le
Wha
t are
mec
hani
cal,
chem
ical
and
bio
logi
cal
met
hods
?
Wha
t are
vir
al d
isea
ses?
Wha
t is
mim
icry
?W
hat i
s th
e la
bel?
Wha
t are
pla
nt f
ield
tria
ls?
Wha
t is
Inte
grat
ed P
est
Man
agem
ent?
Wha
t are
wee
ds?
Wha
t are
see
ds th
at r
ipen
by h
arve
st ti
me;
see
ds th
atre
mai
n on
thei
r st
ems
dur-
ing
harv
est;
and
seed
s w
ithsh
ape
or d
ensi
ty s
imila
r to
that
of
the
crop
see
d?
Wha
t is
the
Mat
eria
l Saf
ety
Dat
a Sh
eet?
Wha
t is
effi
cacy
?
Wha
t is
appl
icat
ion
timin
g?W
hat i
s 10
-20%
of
the
tota
lcr
op v
alue
?W
hat i
s ba
rnya
rd g
rass
?W
hat i
s fu
ll re
gist
ratio
n?W
hat i
s cr
op to
lera
nce?
Wha
t are
pes
ticid
es?
Wha
t are
trad
ition
al b
reed
-in
g te
chni
ques
to d
evel
opne
w c
rop
vari
etie
s, c
ultu
ral
prac
tices
, and
che
mic
alap
plic
atio
ns?
Wha
t are
inse
cts?
Wha
t is
an E
mer
genc
y U
se(S
ectio
n 18
) pe
rmit?
Wha
t is
toxi
colo
gica
lte
stin
g?
Wha
t are
cro
p/pe
st m
odel
san
d en
viro
nmen
tal m
odel
-in
g?
Wha
t is
plan
t pes
ts' a
dapt
a-tio
n to
new
man
agem
ent
tech
niqu
es?
Wha
t is
DD
T?
Wha
t are
toxi
c to
hum
ans
and
wild
life;
uns
afe
inre
sidu
es o
n fo
od; c
ausi
ngsi
gnif
ican
t cro
p da
mag
e?
Wha
t is
prim
ary
scre
enin
g?
44B
EST
Cop
v am
/Ali:
Lir
:3L
E
45
Common Ground: Agriculture for a Sustainable Future
Steps/Key PointsProblem-Solving Technique
Define the Problem
Your company, Innovative Chemicals, Inc., has just signed a contract with a pharma-ceutical firm which gives them permission to test a group of 1,000 chemical com-pounds for potential use as new pesticides. How would you test the new compounds tosee if they are potential candidates for agricultural chemicals? Of the thousands of com-pounds that agrichemical companies test for each year, only 2 or 3 will meet the criterianecessary for commercial use. What are these criteria? How can you test for them?
What to Do (Steps) How to Do It (Key Points)
Decision/Recommendation
New compounds are put through several screening processes to determine whether theymeet the tests to be viable agricultural chemicals. Preliminary screening tests for toxic-ity automatically eliminate most of the compounds. Next, the compounds are tested forherbicide, insecticide or fungicide activity at various dosages. Effective compounds arethen moved into the next phase and tested for environmental effects and effects onwildlife. With all these data assimilated, a decision is made to move a compound intothe "Development" phase and to conduct field testing of the compound. Importantcriteria for testing include toxicity, environmental impact, and dosages needed. (If toohigh a dosage is necessary, the compound may become too toxic, or its production costsmight increase to levels where it is not competitive with other products.)
Innovative Chemistry & Conservation Tillage 13
96
Common Ground: Agriculture for a Sustainable Future
Situation-to-Be-ImprovedProblem-Solving Technique
Define the Problem
and disadvantages of pesticide application? What is theuse with conservation tillage? Compare the economics,
& safety issues, and effectiveness of chemical control vs.control. Based on your comparisons, which method wouldAre there situations where a combination of these methods
What are the advantagesinterrelationship of herbicideenvironmental effect, healthmechanical or biologicalyou recommend? Why?would be appropriate?
Character-istics to BeConsidered
What Why CurrentSituation
Recommen-dations
Decision/Recommendation
better quality, and higher price. Disadvantagesproblems, such as groundwater contamination, non-residues in the food supply, potential health hazards toexpense. Generally, a higher volume of herbicide is
tillage practices are used because of the lack of
Advantages include higher yields,include potential environmentalpoint source pollution, chemicalfarm personnel and wildlife, andrequired per acre when conservationcultivation to control weeds.
Control MethodsironmentalEconomics EnvEffects
Health & Safety Effectiveness *
Chemical 9 8 9 9
Mechanical 5 4 3 7Biological 8 2 1 5
Based on a scale of 1 to 10, where 10 is the highest impact and 1 is the lowest.* Effectiveness rating is based on applying the pesticide at the appropriate time in the life cycle
of the weed, insect or disease.
Innovative Chemistry & Conservation Tillage 14
47
Common Ground: Agriculture for a Sustainable Future
Possibilities - FactorsProblem-Solving Technique
Define the Problem
Inorganic insecticides are some of the most toxic pesticides on the market today. Eachyear brings the US EPA closer to eliminating these products from the market. Butinsect problems can mean a serious loss of yield to the farmer. Developing new organicproducts that are still able to kill or maim insect populations will be crucial. Whatcharacteristics must be taken into account when creating a new organic insecticide?
Factors to Consider Possibilities (Possible Solutions)
Decision/Recommendation
Some of the factors that should be taken into account are biodegradability, timing ofapplication, mechanism of insecticide delivery, type of application, new technologies(making the plant immune to the insect through a "natural" insecticide created bybiotechnology), overwintering (climatic conditions), and others.
Innovative Chemistry & Conservation Tillage - 15
48
Common Ground: Agriculture for a Sustainable Future
Forked RoadProblem-Solving Technique
Define the Problem
What pesticides are labeled for use on the following crops? wheat, corn, soybeans andcotton. Create a hypothetical weed, insect or disease problem for each crop. Providetwo options for products you would use to solve the problem. Defend your choice byusing information about the product, land use, region of the country, climate, soil type,costs, etc.
Factors to Consider Choices
Choice One Choice Two
Decision/Recommendation
Students need to take into account all the above information in selecting an appropriateoption. Normally there are several products on the market that can be used for particu-lar weeds, insects or diseases. Each product must be applied according to label specifi-cations; its effectiveness when applied is directly tied to the life cycle stage of theweed, insect or disease. If the "window of opportunity" for applying a compound ismissed, the product may be totally ineffective in dealing with the pest. Students shouldtake into account the stage of the crop, weed, insect or disease in selecting the mosteffective option.
Innovative Chemistry & Conservation Tillage 16
49
Common Ground: Agriculture for a Sustainable Future
Effect-Cause
Problem-Solving Technique
Define the Problem
A cotton farmer in Arizona noticed that the cotton plants on the outer rows of a fieldbordering a pistachio grove were exhibiting stress. Two weeks later, upon examina-tion, the farmer saw a sticky white substance on the leaves and cotton bolls. Althoughan insecticide was sprayed on the field at that time, damage continued and resulted inreduced yields and poor seed quality. What are some of the possible causes? Whatsteps should the farmer have taken to deal with this problem?This particular field was part of a seed increase contract for a major cottonseed com-pany. The following year, how do you think farmers were affected when they boughtseed from that area?
Possible Causes Related Facts Accept/RejectCause
Decision/Recommendation
Possible causes include insect or disease damage (in this case, whitefly damage). Thefarmer lost yields by not examining the cotton on a regular basis for insect populationgrowth (especially when the crop was bordered by another crop that attracts insects)and by not addressing the problem at the time in the insect life cycle when an insecti-cide would have controlled the population growth. The farmer lost money due toreduced yields and poor quality seed.Since this problem occurred on many seed increase fields that year, the quality andviability of cottonseed sold to farmers the following year was inferior. This resulted inreduced plant stands, lower yields, and numerous lawsuits.
Innovative Chemistry & Conservation Tillage 17
50
MATERIAL SAFETY DATA SHEET I
Common Ground: Agriculture for a Sustainable Future
MATERIAL SAFETY DATA SHEET
The NutraSweet Company1751 Lake Cook RoadDeerfield, IL 60015-5239
COMPOSITION/INFORMATION ON INGREDIENTS:Ingredients
/CAS Number Exposure Limits Concentration (%)
Aspartame22839-47-0
maltodextrin9050-36-6
5 mg/m3 (respirable) *10 mg/m3 (total) *
5 mg/m3 (respirable) *
92 - 97
3 - 8
* - Materials that do not have specific exposure limits areregulated as "nuisance" dusts at these limits.
SECTION 3HAZARDS IDENTIFICATION:
Potential Effects: No adverse effects known.Human Effects and Symptoms
of Overexposure: None known.Acute Inhalation: No known effectsChronic Inhalation: No known long term effectsAcute Skin Contact: No known effectsChronic Skin Contact: No known long term effectsAcute Eye Contact: No known effectsChronic Eye. Contact: No known long term effectsCarcinogenicity: NTP: NO; IARC: NO; OSHA: NO
Medical Conditions Aggravated by Exposure:Ingestion: PhenylketonuriaInhalation: none known
Innovative Chemistry & Conservation Tillage 18
51
Common Ground: Agriculture for a Sustainable FutureMATERIAL SAFETY DATA SHEET I
Page 2 of 4Date: 8/25/94
Product Name: Equal Powder
SECTION 4FIRST AID MEASURES:
Eyes: Flush eyes for 15 minutes with. water.Skin: Wash skin with water.Inhalation: Remove from exposure. Seek attention of physician.Ingestion: None needed, product is a food additive.
SECTION 5FIRE FIGHTING MEASURES:
Flash Point: Not applicableExtinguishing Media: WaterSpecial Fire Fighting Procedures: None
SECTION 6ACCIDENTAL RELEASE MEASURES:
Spill or Leak Procedures: Vacuum or sweep up and place in containersfor disposal. Residue can be washed down and sent to the sanitarysewer.
SECTION 7HANDLING AND STORAGE:
Storage Temperature (Min./Max.): 15 °C/ 30 °CShelf Life: 5 yearsSpecial Sensitivity: Can pick up undesirable odors.Handling and Storage Precautions:
Store between 35 and 60 % Relative Humidity.Avoid high heat and store under dry conditions.Keep container tightly closed and inner bag sealed.Keep away for sources of odors.
SECTION 8EXPOSURE CONTROLS/PERSONAL PROTECTION:
Eye Protection: With normal handling, none neededSkin Protection: None requiredRespiratory/Ventilation: None required with normal handling. If
excessive dusting occurs, a nuisance dust respirator can beused with proper procedures.Exposure Limits: 5 mg/m3 respirable dust, 10 mg/m3 total dust
Innovative Chemistry & Conservation Tillage19
52
MATERIAL SAFETY DATA SHEET I
Common Ground: Agriculture for a Sustainable Future
Solid; fine granulesWhite/NoneNot applicableST-2 (severe dust explosion potential)
Minimum Explosion Concentration: 0.110 oz/cu ftKst: 206 bar-m/secMinimum Spark Ignition Energy: less than 0.20 joulesAutoignition Temperature: Not applicableMelt/Freeze Point: 240 - 245 °C by observation. When
measured with a Differential ScanningCalorimeter there are endotherms at121, 170 and 245 °C.Not applicable1%1.30.50 - 0.70.g /cc0
Not applicable/Not applicablemixture
pH:Solubility in Water:Specific Gravity:Bulk Density:% Volatile by Weight:Vapor Pressure/Density:Molecular Weight:
SECTION 11TOXICOLOGICAL INFORMATION: A vast data base exists regarding the safetyof aspartame in man. Oral doses of 75 mg/kg/day to human subjects for 6months did not produce any clinical signs. LD50 ORAL: >5000 mg/kg (rat)(Practically non-toxic). Inhalation exposure of male and female rhesusmonkeys to aspartame at concentrations up to 16 mg/m3, 6 hours per dayfor 14 consecutive days, did not produce any treatment related effects.Acceptable Daily Intake (ADI) approved by FDA is 50 mg/Kg/Day.
SECTION 12ECOLOGICAL INFORMATION: Biodegradable, non-regulated material
SECTION 13DISPOSAL CONSIDERATIONS: Waste disposal method: Send to sanitary
landfill following local, state and federal regulations.
Innovative Chemistry & Conservation Tillage 20
53
Common Ground: Agriculture for a Sustainable FutureMATERIAL SAFETY DATA SHEET I
RCRA Status: Not listedState Regulatory Information: Not regulated except by the
FDA as a food additive
OTHER INFORMATION:Reason for Issue:Approval Date:Supersedes Date:
SECTION 16
New8/25/94New
Although the information and recommendations set forth herein(hereinafter "Information") are presented in good faith and believed tobe correct as of the date hereof, The NutraSweet Company makes norepresentations as to the completeness or accuracy thereof. Informationis supplied upon the condition that the persons receiving same will maketheir own determination as to its suitability for the purposes prior touse. In no event will The NutraSweet Company be responsible for damagesof any nature whatsoever resulting from the use of or reliance uponinformation. NO REPRESENTATIONS OR WARRANTIES, EITHER EXPRESS ORIMPLIED, OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE OR OF ANYOTHER NATURE ARE MADE HEREUNDER WITH RESPECT TO INFORMATION OR TO THEPRODUCT TO WHICH INFORMATION REFERS.
NutraSweet and the NutraSweet symbol are registered trademarks of TheNutraSweet Company for its brand of sweetening ingredient.
Innovative Chemistry & Conservation Tillage 21
54
MONSANTO
1.
Common Ground: Agriculture for a Sustainable Future
MATERIAL SAFETY DATA ROUNDUP® ULTRA herbicide Page 1 of 6
MONSANTO PRODUCT NAME
ROUNDUP® ULTRA Herbicide
CHEMICAL PRODUCT AND COMPANY IDENTIFICATION
Product Name:Synonyms:EPA Reg. No.:Company ID:
Phone #s:
Revisions:
ROUNDUP® ULTRA herbicideMON 65005
524-475
Monsanto Company800 North LindberghSt. Louis, MO 63167, U.S.A.
Emergency Phone Number (call collect): (314) 694-4000Non-Emergency Information: 1-800-332-3111Sections containing a revision or new information are marked with a +
Warning Stateinents: Keep out of reach of children.CAUTION ICAUSES EYE IRRITATIONREFORMULATION IS PROHIBITEDSEE INDIVIDUAL CONTAINER LABEL FOR REPACKAGING LIMITATIONS
o 41 ors* Health E feeLikely Routes of Exposure:
Eye Contact:
Skin Contact: ROUNDUP® ULTRA herbicide is no more than slightly toxic and no more than slightlyirritating based on toxicity studies.
Ingestion:
MSDS #: S00012770
Skin contact and inhalation
ROUNDUP® ULTRA herbicide may cause pain, redness and tearing based on toxicitystudies.
ROUNDUP® ULTRA herbicide is no more than slightly toxic based on toxicity studies.No significant adverse health effects are expected to develop if only small amounts(less than a mouthful) are swallowed. Ingestion of similar formulations has been
November, 1995
Innovative Chemistry & Conservation Tillage 22
55
Common Ground: Agriculture for a Sustainable Future
MONSANTO MATERIAL SAFETY DATA ROUNDUP® ULTRA herbicide Page 2 of 6reported to produce gastrointestinal discomfort with irritation of the mouth, nausea,vomiting and diarrhea. Oral ingestion of large quantities of one similar product hasbeen reported to result In hypotension and lung edema.
Inhalation: ROUNDUP® ULTRA herbicide is no more than slightly toxic if inhaled based ontoxicity studies.
4. FIRST AID MEASURES
If In Eyes:
NOTE:
Flush with plenty of water. Get medical attention if irritation persists.
For additional human emergency first aid or treatment guidance, call collect, anytime, day ornight (314) 694-4000.
5. FIRE FIGHTING MEASURES
Flash Point:
Auto Ignition Temperature:
Extinguishing Media:
Special Fire Fighting Procedures:
>200(F Method: Pensky-Martens
Not determined
Water spray, foam, dry chemical, CO2, or any class B extinguishingagent.
Firefighters and others that may be exposed to vapors, mists, orproducts of combustion should wear full protective clothing and self-contained breathing apparatus. Equipment should be thoroughlycleaned after use.
Unusual Fire or Explosion Hazards: None
6. ACCIDENTAL RELEASE MEASURESObserve all protection and safety precautions when cleaning up spills - See Exposure Controls/PersonalProtection, Section 8.
Small Spills; For a spill less than one gallon on floor or other impervious surface, soak up with towels or otherabsorbent material and discard in the trash. Clean the spill area with soap and water and rinse the areathoroughly.
Large Liquid Spills on the floor or other impervious surface should be contained or diked and then absorbedwith attapulgite, bentonite or other absorbent clays. Collect the contaminated absorbent, place in a metal drumand dispose of in accordance with the instructions provided under Disposal, Section 13 of this MSDS.Thoroughly scrub floor or other impervious surface with a strong industrial detergent and rinse with water.
Large spills that soak into the ground should be dug up, placed in metal drums and disposed of in accordancewith instructions provided under DISPOSAL, Section 13 of this MSDS. Contact appropriate state agency whenconsidering a land spreading disposal option.
Leaking containers should be separated from non-leakers and either the container or its contents transferred toa drum or other non-leaking container and disposed of in accordance with instructions provided underDISPOSAL, Section 13 of this MSDS. Any recovered spilled liquid should be similarly collected and disposedof.
7. HANDLING AND STORAGE
.......Avoid contact with eyes or clothing.Wash hands before eating, drinking, chewing gum, using tobacco, or using the toilet.Remove clothing immediately if pesticide gets inside. Then wash thoroughly and put on clean clothing.
MSDS #: S00012770 November, 1995
Innovative Chemistry & Conservation Tillage 23
56
Common Ground: Agriculture for a Sustainable Future
MONSANTO MATERIAL SAFETY DATA ROUNDUP® ULTRA herbicide Page 3 of 6
Do not apply directly to water, to areas where surface water is present or to intertidal areas below the meanhigh water mark.Do not contaminate water when disposing of equipment washwaters.
*WODo not contaminate water, foodstuffs, feed or seed by storage or disposal.
8. EXPOSURE CONTROLS / PERSONAL PROTECTION
Eye Protection: Workers handling the packaged concentrate should wear chemical safety gogglestoprevent eye contact during mixing/transfer operations or other activities where there ispotential for eye contact with the concentrated product. The wearing of goggles is notrequired during use of this product in accordance with label instruction.
Skin Protection: Wear appropriate protective clothing to prevent skin contact. Applicators and otherhandlers must wear long-sleeved shirt, long pants, shoes plus socks. Followmanufacturers instructions for cleaning/maintaining PPE. If no such instructions forwashables, use detergent and hot water. Keep and wash PPE separately from otherlaundry.For Handling the Concentrated Product: Avoid breathing vapor or mist. This productconcentrate is not likely to pose an airborne exposure concern during manufacture orpackaging. In the event of abnormal exposure conditions, use NIOSH/MSHA approvedequipment. In work situations where an air purifying respirator is appropriate to be used,use of a full face respirator equipped with purifying elements for protection against organicvapor and dust/mist approved for pesticides is recommended. Use cartridges with NIOSH/MSHA approval number TC-23C or canister with NIOSH/MSHA approval number TC-14G.Full facepiece replaces the need for chemical goggles. Observe respirator use limitationsspecified by the manufacturers. Respiratory protection programs must comply with 29CFR 1910.134.For Use of Product in accordance with label instructions: Respirators are not required foruse of ROUNDUPS ULTRA herbicide in accordance with label instructions.
Ventilation: No special precautions are recommended.
E posure<C ,deli esExposure Limits OSHA PEL ACGIH TLVROUNDURO ULTRA None established None established
Note: These physical data are typical values based on material tested but may vary from sample to sample.Typical values should not be construed as a guaranteed analysis of any specific lot or as specificationitems.
10. STABILITY AND REACTIVITY
Chemical Stability: Stable for at least 5 years under normal conditions of warehousestorage.
Conditions to Avoid: NoneMSDS #: S00012770 November, 1995
Innovative Chemistry & Conservation Tillage 24
57
Common Ground: Agriculture for a Sustainable Future
MONSANTO MATERIAL SAFETY DATA ROUNDUP® ULTRA herbicide Page 4 of 6
Incompatibility with Other Materials: Spray solutions of this product should be mixed, stored or appliedusing only stainless steel, aluminum, fiberglass, plastic or plastic-linedcontainers.
DO NOT MIX, STORE OR APPLY THIS PRODUCT OR SPRAYSOLUTIONS OF THIS PRODUCT IN GALVANIZED OR UNLINEDSTEEL (EXCEPT STAINLESS STEEL) CONTAINERS OR SPRAYTANKS. This product or spray solutions of this product react with suchcontainers and tanks to produce hydrogen gas which may form ahighly combustible gas mixture. This gas mixture could flash orexplode, causing serious personal injury, if ignited by open flame,spark, welder's torch, lighted cigarette or other ignition source.
Hazardous Decomposition Products: None
Hazardous Polymerization: Does not occur. This product can react with caustic (basic) materialsto liberate heat. This is not a polymerization but rather a chemicalneutralization in an acid base reaction.
11. TOXICOLOGICAL INFORMATION
Data from laboratory studies conducted by Monsanto with ROUNDUP® ULTRA herbicide are summarizedbelow:
Single exposure (acute) studies indicate:Oral - Rat LD, - >5,000 mg/kg; FIFRA Category IVDermal - Rat LD50- >5,000 mg/kg; FIFRA Category IVInhalation - Rat LC,,, (4-hr. exp.) - 4.2 mg/I; FIFRA Category IV; Not DOT poisonousEye Irritation - Rabbit; moderately irritating.; all animals free of irritation by day 7, FIFRA Category
III
Skin Irritation - Rabbit (4-hr. exp.); slightly irritating; Pll - 0.63/8.0, all animals free of irritation by day7, FIFRA Category IV
No skin allergy was observed in guinea pigs following repeated skin exposure.
COMPONENTSData from laboratory studies conducted by Monsanto and from the scientific literature on components ofROUNDUP® ULTRA herbicide:
lsooropylamine Salt of GlvphosateData from studies with a formulation comprised of 62% isopropylamine salt of glyphosate (MON 0139)indicate the following:
In repeat dosing studies (6-month), dogs fed MON 0139 exhibited slight body weight changes.Following repeated skin exposure (3-week) to MON 0139, skin irritation was the primary effect inrabbits.
Additional toxicity information is available on glyphosate, the active herbicidal ingredient of MON 0139.Following repeated exposures (90-days) to glyphosate in their feed, decreased weight gains were notedat the highest test level in mice, while no treatment-related effects occurred in rats. Following repeatedskin exposure (3 weeks) to glyphosate, slight skin irritation was the primary effect observed in rabbits.No skin allergy was observed in guinea pigs following repeated skin exposure. There was no evidenceof effects on the nervous system, including delayed effects in chickens (repeat oral doses) orcholinesterase inhibition in rats (single oral doses). Reduced body weight gain and effects on livertissues were observed with long-term (2-year) feeding of glyphosate to mice at high-dose levels.Reduced body weight gain and eye changes were observed at the high-dose level in one long-term (2year) feeding study with rats, while no treatment-related effects occurred in a second study. Noadverse effects were observed in feeding studies with dogs. Glyphosate did not produce tumors in any
MSDS #: S00012770 November, 1995
Innovative Chemistry & Conservation Tillage - 25
58
Common Ground: Agriculture for a Sustainable Future
MONSANTO MATERIAL SAFETY DATA ROUNDUP® ULTRA herbicide Page 5 of 6
of these studies. Based on the results from the chronic studies, EPA has classified glyphosate incategory E (evidence of non-carcinogenicity for humans). No birth defects were noted in rats andrabbits given glyphosate orally during pregnancy, even at amounts which produced adverse effects onthe mothers. Glyphosate was fed continuously to rats at very high dose levels for 2 successivegenerations. Toxicity was reported in offspring from the high dose, a level which also produced adverseeffects on the mothers. In a 3 generation study conducted at lower dose levels, no effects were seenon the ability of male or female rats to reproduce. Glyphosate has produced no genetic changes in avariety of standard tests using animals and animal or bacterial cells.
12. ECOLOGICAL INFORMATION
Aquatic and Avian studies with this product have not been conducted at this time. However, an extensivedatabase of studies exists for the active ingredient glyphosate. These studies indicate that glyphosate rangesfrom practically non-toxic to slightly toxic in a variety of aquatic and avian species. For glyphosate MSDS oradditional information, contact Monsanto at 1-800-332-3111.
13. DISPOSAL CONSIDERATIONS
Wastes resulting from the use of this product that cannot be used or chemically reprocessed should bedisposed of in a landfill approved for pesticide disposal or in accordance with applicable Federal, state or localprocedures.
Emptied container retains vapor and product residue. Observe all labeled safeguards until container iscleaned, reconditioned or destroyed.
14. TRANSPORT INFORMATION
Follow the precautions indicated in the Handling and Storage Section, Section 7 of this MSDS.
DOT Proper Shipping Name: Not Applicable
DOT Hazard Class/I.D. No.: Not Applicable
DOT Label: Not Applicable
U.S. Surface Freight Classification: Weed killing compound, N.O.I.B.N.
15. REGULATORY INFORMATION
SARA Hazard Notification:Hazard Categories Under Criteria of SARA Title Ill Rules (40 CFR Part 370): Immediate
Section 313 Toxic Chemical(s): Not Applicable
Hazardous Chemicals Under OSHA Hazard Communication Standard (29 CFR §1910.1200): None
Reportable Quantity (RQ) under U.S. CERCLA: Not Applicable
TSCA Inventory: All components are on the US EPA's TSCA Inventory List
MSDS #: S00012770 November, 1995
Innovative Chemistry & Conservation Tillage 26
59
Common Ground: Agriculture for a Sustainable Future
MONSANTO MATERIAL SAFETY DATA ROUNDUP® ULTRA herbicide Page 6 of 6
16. OTHER
Reasons for revision: New Product
This Material Safety Data Sheet (MSDS) serves different purposes than and. DOES NOTREPLACE OR MODIFY THE EPA-APPROVED PRODUCT LABELING (attached to andaccompanying the product container). This MSDS provides important health, safety, andenvironmental information for employers; employees, emergency responders and othershandling large quantities of the product in activities generally other than product use, while thelabeling provides that information specifically for product use in the; ordinary course.
Use, storage and disposal of pesticide products are regulated by the EPA under the authority ofthe Federal Insecticide, Fungicide, and Rodenticide Act (FIFRA) through the product labeling,and all necessary and appropriate precautionary, use, storage, and disposal information is setforth on that labeling. It is a violation of federal law to use a pesticide product in any mannernot prescribed at the EPA - approved label.
Although the information and recommendations set forth herein (hereinafter Information") arepresented in good-faith and believed to be correct as of the date hereof, Monsanto:Companymakes no cepresentations as to the completeness or accuracy thereof. Information IS suppliedupon the condition that the persons receiving same will Make their: own determinatioaatlo, itssuitability.for their purposes prior to use. In no event will MOnsantOComparty-be:responsible.:for damages of any nature whatsoever resulting.from the use oforrelienciapowinfOrmatiOn;NO REPRESENTATIONS OR WARRANTIES,,EITHER EXPRESS OR IMPUED,SOFMERCHANTABILITY, FITNESS.FOR:.A-PARTICULARPURposEOR.OPANYOTHER NATURE..;ARE. MADE HEREUNDER WITH RESPECT TO INFORMATION OR THEpRODUCT TO..WHICHINFORMATION REFERS.
Roundup® is a registered trademark of Monsanto Company. RUULTRA.N95
MAC-5068
Printed on recycled paper (10% postoonsumer waste)
Discuss the implications of genetically improved plants to our society.
Create a plan to introduce genetically improved plants in four major areas ofworld.
Evaluate the economic, environmental and social aspects of introducing geneticallyimproved plants in the U.S. and throughout the world.
Analyze media reports on plant biotechnology. Draw conclusions.
Appraise the field of plant biotechnology and make informed decisions aboutperceived risks and benefits.
Applied Academics Competencies
CommunicationsHistory
MathematicsScience
Genetically Improved Plants 1
Common Ground: Agriculture for a Sustainable Future
Equipment, Supplies, References, and Other Resources
Activity #1- Introduction of GeneticallyImproved Plants on a Global Basis
world map
Activity #2 - Debating the Pros and Consof Agricultural Biotechnology
sample newspaper article
Activity #3 - Plant Tissue CultureExercise
plant tissue culture kitAvailable from your local educationalequipment supplier orWard's Natural Science Est., Inc.5100 West Henrietta RoadP.O. Box 92912Rochester, NY 14692-9012
Activity #4 - Jeopardy Mike Game
1. scissors
2. felt-tipped marker
3. Velcro dots or tape
4. 2 large poster boards (same size)
5. 2 buzzers or bells
REFERENCES/RESOURCES
A New Technological Era for AmericanAgriculture U.S. Congress,Office of Technology Assessment,OTA-F-474, U.S. Government Print-ing Office, Washington, DCAugust 1992
A Guide to Biotechnology in CropProduction - North Carolina Coop-erative Extension Service, NorthCarolina State University,P.O. Box 7602, Raleigh, NC 27695Bulletin #AG-482
The following resource materials areavailable from Ohio Agricultural Educa-tion Curriculum Materials Service, 254Agricultural Administration Bldg., TheOhio State University, 2120 Fyffe Road,Columbus, OH 43210-1067:
Introduction to Plant Biotechnologyintroductory student manual contain-ing descriptions, applications, discus-sion of impact, and job opportunities
Biotechnology in Agriculture manualcontaining 6 instructional units deal-ing with microbial biotechnology,genetics and biotechnology in plantand animal science. Teacher guide alsoavailable
Biotechnology: A Science Tool for theFuture - video giving an excellentoverview of biotechnology as a toolfor the advancement of science
Situation
These activities are designed for students in grades 9-12.
Genetically Improved Plants 2
62
Common Ground: Agriculture for a Sustainable Future
Provide a world map for ACTIVITY 1identification of the Introduction of Genetically Improved Plantscountries selected for thisactivity.
on a Global Basis
Interest Approach
Have students brainstorm to determine factors whichwould influence the introduction of genetically im-proved plants around the world. Each group shouldselect a recorder and a reporter. Each reporter shouldreport back to the class at the end of the brainstormingsession. The teacher can record the responses on achalkboard or overhead. Some of the answers mayinclude land availability, planting/growing/harvestingseasons, soil type, topography, climate, economics,environment, and political and legal issues. The teachermay need to help the students draw out more abstractideas such as culture, traditions, government policies,etc.
When the list has been compiled, challenge students toresearch the countries they have chosen to obtain infor-mation about each of the factors cited.
(continued)
Genetically Improved Plants 3
63
Common Ground: Agriculture for a Sustainable Future
Have each group presentits findings to the class.To ensure that all studentsparticipate, divide up thefactors and have eachstudent in each of thegroups present a portion ofthe group's findings.
Have the class collate theinformation from theresearch. Encourage classdiscussion with questionssuch as:
"Are there similaritiesbetween countries orregions of the world?"
"What are the economic,environmental and socialimpacts of introducinggenetically improvedplants to each of thecountries researched?"
Extension
Invite a speaker fromprivate industry, govern-ment, or a local universityto talk about agriculturalbiotechnology and whatresearch is currently beingdone.
ACTIVITY 1 (continued)
Teaching Procedure
Divide the class into four groups. Assign one of thefollowing country categories to each group. Have eachgroup choose three countries from their assigned cate-gory for special focus.
Categories:1. Industrialized Countries countries with advanced
infrastructure and high level of sophistication withinlocal businesses. Includes most of the WesternWorld - the European Community and NorthAmerica and some parts of Asia.
2. Middle Income Producing Countries countrieswith primarily a natural resource- or agriculture-based economy. Includes newly industrializedeconomies of Southeast Asia and South and CentralAmerica. This sector has the fastest economicgrowth in the global economy.
3. Major Oil Exporting Countries countries that aremajor oil producers, depending on the price of crudeoil for their economic stability. Includes the oil-richnations of the Middle East.
4. Less-Developed Countries countries that dependon agriculture and natural resources to providenational income. Includes primarily Third Worldcountries that lack the economic and environmentalinfrastructure to support widespread industrialgrowth.
Key Terms
1. Biotechnology the application of biological pro-cesses to the production of materials for use inagriculture, medicine and industry.
2. DNA (deoxyribonucleic acid) the complex chemicalmolecule containing hereditary information that ispassed from parent to offspring.
3. Gene a unit of heredity composed of DNA.4. Genetic engineering alteration of the characters of
an organism by inserting genes from another organ-ism into its DNA. Methods used are referred tocollectively as recombinant DNA technology.
Genetically Improved Plants 4
64
Common Ground: Agriculture for a Sustainable Future
The purpose of this activ-ity is to provide a forum todebate the pros and consof agricultural biotechnol-ogy. Students will need toresearch information tosupport their team'sposition. A sample articlefor use is included onpages 16 and 17.
ACTIVITY 2Debating the Pros and Cons of Agricultural
Biotechnology
Interest Approach
To introduce what the public perception is of agriculturalbiotechnology and the risks and benefits of this science,give a short historical summary of American agriculturepast and present. Technological innovation has played asignificant role in transforming American agriculture inthe past and again promises major impacts on the U.S.food production and processing industries. The transitionfrom horsepower to mechanical power (1920-1950)boosted the productive capacity of agriculture even asfarm labor requirements decreased dramatically. From1950 to 1980 agricultural productivity increased furtheras chemical fertilizers, feed additives and pesticidesincreased yields and helped farmers control pests anddisease. Biotechnology and advanced computer systemsnow are ushering American agriculture into a new tech-nological era. These technologies have the potential toincrease U.S. agricultural productivity and competitive-ness, enhance the environment, and improve food safetyand quality.
Today, the public is increasingly questioning whethertechnological change is always good or needed. Newconcerns are being voiced about the safety of the foodsupply, the environment, and the changing structure ofagriculture. These issues, as well as declining publicconfidence in institutions in general, create an atmo-sphere in which agricultural biotechnology may not bereadily approved for commercial use or adopted byindustry. Lack of public acceptance could prevent sometechnologies from being used even if they are approvedby regulatory agencies.
(continued)
Genetically Improved Plants 5
65
Common Ground: Agriculture for a Sustainable Future
Divide the class into two teams. Have each teamappoint a team leader and a spokesperson. Flip a coin todetermine the pro group and the con group. All teammembers should use local libraries, newspaper articles,magazines, TV broadcasts, company literature, com-puter databases, etc. to find articles and data to supporttheir team's position. At the same time, they will beexpanding their general knowledge of the subject.
Some of the questions for the students to consider are:
1. What are the ethical concerns regarding agriculturalbiotechnology or genetic engineering? What are therisks? What are the benefits?
2. What data does the public need in order to draweducated conclusions about biotechnology?
3. Should the government be involved in creating lawsregarding biotechnology? If yes, how? If no, whynot?
4. What interrelationships will be affected by the newproducts and technology? What are the societalimplications?
5. What are the implications if the U.S. fails to keep upwith other countries in biotechnology?
Genetically Improved Plants - 6
66
Common Ground: Agriculture for a Sustainable Future
Plant tissue culture is the technique of growing a wholeplant from a single engineered cell or piece of planttissue. This is very useful for scientists because it meansthat thousands of identical plants (clones) can be grownfrom the cell of a single plant. The parent plant selectedhas the desired genetic traits (for example, herbicideresistance, insect or disease resistance, heat or droughtresistance, ripening alterations, flavors, textures, nutri-tional value, etc.). This process can be used for a numberof vegetables, including carrots and potatoes, as well asfor ornamental plants such as orchids.
Interest Approach
Have students brainstorm what the future will be like ifthe techniques of agricultural biotechnology provideplants that can withstand high or low temperatures,drought, and insects and disease.
Teaching Procedure
This activity requires the use of a plant tissue culture kit.The kits are available in two sizes: for demonstration(for 1 or 2) and for classroom use (up to 20). The exer-cise will span several weeks and will require specifiedobservation activities (data collection/analysis).
Genetically Improved Plants 7
67
Common Ground: Agriculture for a Sustainable Future
If the Jeopardy!-like boardwas already constructed inUnit 1, Activity #1, skip theadvance preparation proce-dures and insert the cat-egory/answer templatelocated on pages 9-10 inthis unit.
Advance Preparation
Prepare the Jeopardy!board by cutting 30 3x5inch windows spaced oneinch apart for game catego-ries and answers. Save thecutout windows to serve asflap covers for the answerportions. There will be 5windows across the top forcategories and an addi-tional 5 windows beloweach of these for answers.Answers for each categorywill be designated pointvalues of 10, 20, 30, 40and 50. Attach the secondposter board to the firstwith Velcro dots or tape.Tape together the answersheets provided and slidebetween the two posterboards. Reattach the flapsover the answers by tapingeach across the top to serveas a hinge. Use the mark-ing pen to designate pointvalue on each of the an-swer flaps.
ACTIVITY 4Jeopardy/ -like Game
Interest Approach
Pique the students' interest by discussing public percep-tions of biotechnology. Ask students to present informa-tion they have heard about biotechnology and what theyfeel is fact or fiction.
Teaching Procedure
Playing the game: Divide the students into 2 or 3 groupsand provide the person at the head of each line with thebuzzer or bell. Flip a coin to determine which groupmakes the first selection. Open the flap selected toexpose the answer. The first person to ring the buzzergets to respond by providing a question for the revealedanswer. (Note: In many cases, there may be more thanone correct question to a given answer.) The first personwith the correct question scores the value on the flap. Awrong question results in a deduction of the value on theflap. When all flaps are exposed, the highest score wins!
Genetically Improved Plants - 8
68
JEO
PAR
DY
! A
NSW
ER
S
The
Anc
ient
sPl
ants
for
the
Futu
rePo
tpou
rri
Bio
tech
nolo
gy T
echn
ique
sT
he M
edia
& th
e Pu
blic
The
org
anis
ms
that
wer
eus
ed to
mak
e be
er a
s ea
rly
as 6
000
B.C
. in
Sum
eria
nan
d B
abyl
onia
n tim
es.
Bac
teri
a th
at h
ave
a sy
mbi
-ot
ic r
elat
ions
hip
with
legu
min
ous
plan
ts s
uch
asso
ybea
ns, p
eas
and
pean
uts.
The
y el
imin
ate
the
need
for
addi
ng f
ertil
izer
.
The
"ne
w"
plan
t for
med
by jo
inin
g to
geth
er p
roto
-pl
ants
fro
m p
otat
o an
dto
mat
o pl
ants
; fur
ther
clar
ifie
s ho
w p
lant
sfu
nctio
n an
d ho
w th
ey c
anbe
impr
oved
.
A s
peci
aliz
ed p
iece
of
equi
pmen
t tha
t is
used
tosh
oot h
igh-
velo
city
mic
ropr
ojec
tiles
coa
ted
with
DN
A in
to a
pla
nt.
The
pes
ticid
e re
sidu
e sc
are
in 1
989
that
rec
eive
d hi
ghm
edia
atte
ntio
n an
dne
gativ
ely
impa
cted
cons
umer
per
cept
ions
.
The
milk
-pre
serv
atio
npr
oduc
t mad
e by
lact
icac
id b
acte
ria
in a
ncie
ntC
hina
.
The
bac
teri
a w
ith th
e ge
nefo
r a
toxi
n th
at h
as b
een
succ
essf
ully
clo
ned
and
intr
oduc
ed in
to c
rops
topr
otec
t the
m f
rom
cat
er-
pilla
r da
mag
e.
A m
old
grow
n in
larg
equ
antit
ies,
dri
ed, a
ndsp
ecia
lly p
repa
red
asnu
triti
ous
natu
ral f
ood;
ityi
elds
myc
o-pr
otei
n45
% p
rote
in, 1
3% f
at, a
ndhi
gh f
iber
con
tent
.
The
tech
niqu
e us
ed to
rapi
dly
clon
e la
rge
num
-be
rs o
f pl
ants
aft
er a
gen
eha
s be
en in
sert
ed.
Thr
ee o
f th
e sp
ecif
ic f
ood
safe
ty c
once
rns
of c
on-
sum
ers.
The
pro
cess
use
d as
ear
lyas
140
0 A
.D. i
n di
still
ing
grai
n in
to a
var
iety
of
spir
its.
The
pro
duct
, cre
ated
fro
mfe
rmen
tatio
n of
sug
ar c
ane
juic
e in
Bra
zil,
that
has
redu
ced
the
coun
try'
sre
lianc
e on
fos
sil f
uels
.
Dur
ing
this
mill
ing
pro-
cess
, Sw
edis
h sc
ient
ists
have
inve
nted
a w
ay o
fus
ing
the
was
te to
gro
wsi
ngle
cel
l pro
tein
(SC
P),
used
for
ani
mal
fee
d.
A s
peci
aliz
ed te
chno
logy
used
to in
activ
ate
sele
cted
gene
s in
a p
lant
; (e.
g., i
t is
used
to p
reve
nt s
ofte
ning
into
mat
oes.
)
Ter
m f
or th
e ch
ance
of
loss
or h
arm
, with
hig
h or
low
occu
rren
ce a
nd w
ithva
ryin
g se
veri
ty, d
urat
ion
and
timin
g.
A m
ajor
ben
efic
ial d
isco
v-er
y m
ade
by A
lexa
nder
Flem
ing
in 1
928
- an
ear
lybi
otec
hnol
ogy
cont
ri-
butio
n.
The
two
amin
o ac
ids
inco
rn th
at im
prov
e its
nutr
ition
al v
alue
whe
n th
eir
amou
nts
are
incr
ease
d.
Thr
ee f
ood
prod
ucts
that
cont
ain
com
mon
mic
robe
sth
at w
e ea
t eve
ry d
ay.
Four
maj
or tr
ansg
enet
iccr
ops
that
hav
e be
enpr
oduc
ed in
the
U.S
.
Typ
e of
foo
d th
e av
erag
eco
nsum
er th
inks
is m
ore
likel
y to
con
tain
pes
ticid
ere
sidu
e th
an is
pro
cess
edfo
od.
Typ
e of
san
itatio
n sy
stem
base
d on
mic
robi
al a
ctiv
ity.
Bef
ore
its u
se, i
n th
e ea
rly
1900
s, th
ere
wer
e m
ajor
out
-br
eaks
of
dise
ase
in o
ver-
crow
ded
indu
stri
al c
ities
.
Thr
ee a
dver
se e
nvir
onm
en-
tal c
ondi
tions
aga
inst
whi
ch a
gron
omis
ts a
rew
orki
ng a
s th
ey d
evel
opw
ays
to h
arde
n pl
ants
.
Geo
grap
hica
l are
a w
here
biot
echn
olog
y m
ay h
elp
prov
ide
food
to k
eep
peop
lefr
om m
assi
ve s
tarv
atio
n in
freq
uent
ly-o
ccur
ring
dro
ught
and
heat
con
ditio
ns.
Nam
e fo
r ge
netic
ally
-en
gine
ered
var
ietie
s of
soyb
eans
, cor
n an
d co
tton
that
are
not
dam
aged
by
com
mer
cial
wee
d co
ntro
lap
plic
atio
n.
Are
a th
at b
oth
indu
stry
and
gove
rnm
ent m
ust
addr
ess
to in
crea
se p
ublic
conf
iden
ce in
new
tech
-no
logy
.
70
JEO
PAR
DY
! Q
UE
STIO
NS
The
Anc
ient
sPl
ants
for
the
Futu
rePo
tpou
rri
Bio
tech
nolo
gy T
echn
ique
sT
he M
edia
& th
e Pu
blic
Wha
t is
yeas
t?W
hat a
re n
itrog
en-f
ixin
gba
cter
ia o
f th
e ge
nus
Rhi
zobi
um?
Wha
t is
the
pom
ato
plan
t?W
hat i
s a
part
icle
gun
?W
hat i
s th
e A
lar
scar
e?
Wha
t is
yogu
rt?
Wha
t is
B.t.
or
Bac
illus
thur
ingi
ensi
s?
Wha
t is
fusa
rium
mol
d?W
hat i
s pl
ant t
issu
ecu
lture
?W
hat a
re p
estic
ide
resi
dues
,an
tibio
tics
& h
orm
ones
,ni
trite
s, ir
radi
atio
n, a
ddi-
tives
& p
rese
rvat
ives
,ar
tific
ial c
olor
s, ta
mpe
ring
,ha
ndlin
g, im
prop
erpr
oces
sing
, nat
ural
toxi
ns,
and
bact
eria
?
Wha
t is
ferm
enta
tion?
Wha
t is
fuel
alc
ohol
?W
hat i
s pa
per-
mak
ing?
Wha
t is
antis
ense
tech
nolo
gy?
Wha
t is
risk
?
Wha
t is
peni
cilli
n?W
hat a
re ly
sine
and
tryt
opha
n?W
hat a
re y
east
, mus
hroo
ms,
mal
t ext
ract
s, c
hees
e, b
read
,yo
gurt
?
Wha
t are
cot
ton,
ric
e,so
ybea
ns, s
unfl
ower
,ra
pese
ed, c
orn,
tom
ato,
suga
r be
ets,
pot
ato,
lettu
ce, c
abba
ge, c
ucum
-be
r, a
spar
agus
, car
rot,
peas
, cel
ery,
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Common Ground: Agriculture for a Sustainable Future
Steps/Key PointsProblem-Solving Technique
Define the Problem
What are some of the career opportunities in agricultural biotechnology? What are theeducational requirements, skills needed, and nature of the work? Develop a short jobdescription for your selected career.
What to Do (Steps) How to Do It (Key Points)
Decision/Recommendation
There are many areas from which to select a career. Some of them are:
Research & Development molecular biologists, biochemists, chemists, microbiolo-gists, chemical engineers, laboratory technicians, computer scientists, and others.
Production of Food and Fiber farmers, brewers, machinery operators, constructionworkers, welders, control technicians, engineers, electricians, plumbers, packers,delivery drivers, quality control specialists, and others.
Regulatory registration personnel in research, quality control personnel in production,government regulators, and others.
As you can see, job opportunities related to biotechnology are not all scientific innature. Someone is needed to build the factories, run the offices, work the computers,make and repair the fermentors, and transport raw materials to the site and products tothe consumer.
Genetically Improved Plants 11
7 3
Common Ground: Agriculture for a Sustainable Future
Situation-to-Be-ImprovedProblem-Solving Technique
Define the Problem
As a committee member on a government task force to determine the fate of geneticallyengineered organisms, you have been asked by a biotechnology company for permission to testa new strain of bacteria which, when sprayed on a cereal crop, will triple the current yield. Inaddition, the bacteria are so environmentally "friendly" that they make the cropland pest-freewithout the use of chemical pesticides.
Preliminary data supplied by the company, however, indicate that there may be a 1 in1,000,000 chance that this strain of bacteria could mutate and contaminate the soil so that anycrop grown in it would be unfit for human or animal consumption for 5 years.
What additional information would you require from the company before you make yourdecision? What factors would impact your decision, and what weight would you give to eachof the factors? What are the benefits? What are the risks?
Would your decision be the same or different if the crops were located in Africa and youknew that triple yields could save millions of people from certain starvation?
Characteristicsto Be Considered
What Why CurrentSituation
Recommen-dations
Decision/Recommendation
Generally, concerns about genetically engineered organisms focus on the following:
O possible "escape" of a genetically engineered organism, so that it invades new ecologi-cal niches or outcompetes naturally-occurring organisms, becoming a pest
O possible disruption of a delicately-balanced ecosystemO possible risks to humans or wildlifeO possible problems of gene stability and gene transfer to unintended recipient organismsO possible impact on evolutionO the sheer "newness" of the technique
The particular problem addressed here involves microorganisms, which tend to elicit moreconcern on the part of the public than do plants. Microorganisms are invisible and relatively"unknowable." The framework for evaluating risk in this case could be focused on thefollowing questions:
1. Are we familiar with the properties of the organism and the environment into which itmay be introduced?
2. Can we confine or control the organism effectively?3. What are the probable effects on the environment if the introduced organism or a
genetic trait persists longer than intended or spreads to non-target environments?
In order to evaluate the company's request, a strategy for risk assessment should bepresented. Has the company developed a profile of the new bacteria's behavior under differ-ent environmental conditions? If this is the first time that the company has approached theregulators for permission to test this organism, students may want to recommend a small-scale introduction for field testing with proper containment procedures. If all goes well, levelsof containment can gradually be lowered as data on safety are obtained. Multiple-site fieldtesting of the improved strains would be the next logical step towards large-scale testing andcommercialization.
Genetically Improved Plants - 12
Common Ground: Agriculture for a Sustainable Future
Possibilities - FactorsProblem-Solving Technique
Define the Problem
A strong agricultural economy is critical to the health of the U.S. economy. The industryaccounts for 15% of the gross domestic product and is a key export earner, with foreign salesapproaching $40 billion annually. Agriculture and its related industries provide jobs for 21million Americans.
The development of agricultural biotechnology comes at a critical juncture for U.S. agri-culture. Competition for world markets is becoming fierce. At the same time, U.S. producersand processors must meet the challenge of new environmental policies. What are some of thefactors that may be realized through plant biotechnology? What are the long-term possibilitiesfor each?
Factors to Consider Possibilities (Possible Solutions)
Decision/Recommendation
Some of the factors that may be realized through plant biotechnology are the following:
O improved agricultural products resulting in higher-quality food and fiberO new agricultural productsO higher crop yields from newly-developed plant strains with greater tolerance to
environmental hazards and stress. (Research is being done on ways to harden plantsagainst adverse environmental conditions such as soil salinity, drought, frost, alkalineearth metals, and anaerobic soil conditions as well as viruses and insects.)
O better ecological management of agriculture systems, including maintaining soilproductivity and improving water management
O safer and more convenient food products resulting from new techniques for detectingthe presence of harmful materials and contaminants; also, better processing methods
O more effective pest-control agents - biopesticides and biofertilizers. (These includebacteria that make herbicide and insecticide compounds act as natural pesticides, andcrops that are more self-sufficient in obtaining nitrogen.)
O new food industries like aquaculture (raising fish as a food source), which alreadyproduces over 600 million pounds of edible protein annually.
Genetically Improved Plants - 13
7 5
Common Ground: Agriculture for a Sustainable Future
Forked RoadProblem-Solving Technique
Define the Problem
Biotechnology is focused not only on pest and disease control, but also on improv-ing the nutritional value and flavor of food.
From a consumer's point of view, what five factors are important to you whenselecting popcorn? Which one would you attempt to improve on using biotechnology?Why?
Here are some interesting facts about popcorn:Americans consume 16.5 billion quarts of popped popcorn annually. About 30% of
it is eaten outside the home in theaters, ballparks, schools, etc. One cup of unbuttered,air-popped popcorn provides 1.3 grams of dietary fiber and about 27 calories. If lightlybuttered, the calorie count may rise to 126. Popcorn has more protein, phosphorus andiron than do potato chips, ice cream, pretzels or soda crackers. Popcorn pops becauseheat builds steam pressure inside the seed most effectively at 13.5 to 14 percentmoisture. Archaeologists have found ears of popcorn in New Mexico which, accordingto radioactive carbon tests, are nearly 5600 years old.
Factors to Consider Choices
Choice One Choice Two
Decision/Recommendation
You may want to pass out small samples of popcorn to set the stage for this question.
Important factors include "popability," color, taste, nutritional value, texture, crunchi-ness, smoothness (no insect damage), and others.
Genetically Improved Plants - 14
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Common Ground: Agriculture for a Sustainable Future
Effect-Cause
Problem-Solving Technique
Define the Problem
In the area of agricultural biotechnology, you have been awarded a grant from theAlternative Agriculture Foundation either to develop a new crop or to improve anexisting one. Where would you focus your efforts? Why? Some of the areas youmight consider are environmental preservation, nutritional value, yield, and land use.
Possible Causes Related Facts Accept/RejectCause
Decision/Recommendation
For environmental preservation, students may want to concentrate on developing pest-and disease-resistant crops, nitrogen-fixing characteristics, and drought- and tempera-ture-resistant species.
For nutritional value, students may want to concentrate on increasing protein valueand improving fiber content, digestibility, and palatability.
For yields, students may want to focus on increased food volume, harvestability andeconomics.
For land use, students may want to develop crops that can be grown in the desert, athigh elevations, or in a very wet or cold environment. They may concentrate theirefforts on developing crops that are more efficient and crops that can be grown inclosely-spaced rows.
Genetically Improved Plants 15
.? 7
Common Ground: Agriculture for a Sustainable FutureNEWSPAPER ARTICLE
Does danger lurk in genetically altered crops?
Offeringfood forthought
By Donna ShawINQUIRER STAY/ WRITER
HERNDON, Va. Picture, if you will,two platefuls of food. One is laden withbacon, eggs and hashed brown potatoes.The other holds a genetically engi-neered tomato developed by CalgeneInc., a California biotechnology firm.
Which plate offers the products mostthoroughly evaluated by the US. Foodand Drug Administration?
If your vote is for the bacon-and-eggcombo, think again.
Never mind that bacon Is full of fat andchemicals and that eggs contain choles-teroL With few exceptions potatoes,for one, because they contain a naturaltoxin the foods in your grocery starehaven't been FDA-tested for safety ornutritional value. Instead, their meritshave been established by years, some-times centuries, of consumption.
Calgene's "Flavr Savr" tomato, on theother hand, is one of the most scruti-nized foods in history. A decade of test-ing, costing $25 million, has pinpointedits contents down to the molecularlevel. Its unique characteristic is thatthe effects of one gene, governing rot,have been slowed, allowing the tomatoto ripen on the vine.
Last week, with the Flavr Savr on thebrink of becoming the first geneticallyengineered whole food to receive FDAapproval, the agency asked its food advi-sory committee a panel of independ-ent experts to determine whether thegovernment was asking the right ques-tions about these high-tech wonders.
Indirectly, the FDA also challengedAmericans to really think about thefoods they eat With more than 40 othergenetically altered food crops being de-veloped, the meals of tomorrow arelikely to contain combinations neverbefore found on anybody's plate.
Among the experimental crops arethose designed to resist pests, disease,herbicides, cold and drought.
"The bottom line is that the new foodsmust be as safe as the foods in grocerystores today," James H. Maryanski, theFDA's food biotechnology coordinator,told the committee on the first of Itsthree days of meetings here.
MaryansM said his young daughter re-cently asked if tomatoes with fish geneswould have scales. A tomato containing afrost-resistant gene from the Arctic floun-der Is under development by a Calgenecompetitor, DNA Plant Technology Corp.,of Cinnaminson.
The FDA is developing a policy requiring companies tonotify the agency before Introducing biotech-enhanced foods,Maryanski said. The FDA also is likely to require somelabeling, especially for products containing potential aller-gens, such as peanuts.
When the meetings ended Friday, the panel took no vote.But the group made up of biologists, nutritionists andothers generally agreed with the FDA's conclusion thatCalgene's tomato was safe and ready for the market.
But, the members said, most subsequent biotech productsshould be evaluated caseby-case, at least until the body ofknowledge on genetically engineered foods Is sufficiently ex-panda&
Biotech proponents balk at harsher regulation for theirproducts, painstakingly developed with isolated genetic
Genetically' Engineered TomatoesRipe tomatoes coma'', an enzyme called PG (polY9stactutonase). wernncauses the fruit to soften and rot Generic engineers at Calgene Mc..in California. have managed to repress production of the PG enzymeby turning wound the gene responsible and extending the rifeof the ripe fruit.
IBIsoiate (clone)n. the PG gene.
which causesa ripe tomatoto softenand rot.
n Reverse the PG geneAim sequence so that the
gene is backwaras. inwhat scientists can meanteense orientation.
Put the reversed PG gene inAgrobactenum. Ag'Wei= plants and is commonlyused by genetic engineers asa vehide for getting modifiedor foreign genes into target cells.
n Put Agrobactenum M a path dish withiser cuttings from a tomato plant.The edges of the leaves absorb the
gene becomes part of theacid the times PG gen
genetic material of the tomato plant cells.
Pent teeAgrobactenum
The leaf cuttings regenerate tomatoplants containing the reversed PG gene.
/-
lifter Me plants sprout roots, they are transferredto sod aria grow toSeeds are collected from the ty
:Zoom for field Male and e endproduction.
The reversed PG gene repressesthe natural PG gene's productionof the trial enzyme. Thisallows the engineered fruit to ripenmore fully on the vine and stillhew time to get to market before
spoils.°
SOME& Cilleene re. The Ofterwooto 8.
Ito thiReNgolva IbOODI.ASLIS
traits. Traditional cross-breeding, they note, can result inunknown and unintended genetic changes, some of whichmay increase natural toxins or allergens, or reduce vitamins.
They say they are being penalized for their advancedmolecular technology, which allows closer scrutiny of foodingredients, and ask why traditional growers aren't held tothe same. time- and money-consuming standards.
The industry says, too, that the public needs to be bettereducated about science. DNA, the genetic material found Inevery living organism, is consumed with every fruit, vegeta-ble and meat. Yet no one turns green from eating spinach orsprouts fins after eating fish.
On Friday, representatives of groups that include the Unionof Concerned Scientists, the Environmental Defense Fundand Consumers Union said that while Calgene had been morethan cooperative in providing documentation, other compa-
See TOMATO on E2
Genetically Improved Plants - 16
78BESTCOPYAVAILABLE
Common Ground: Agriculture for a Sustainable FutureNEWSPAPER ARTICLE page 2
Biotech tomatocreates bumpercrop of issues
TOMATO from Elnies might not follow suit.
They- called for mandatory label-ing, pre-marketing approval and fur-ther allergy studies of all geneticallyengineered foods, and they accusedthe FDA of rushing the Flavr Savrthrough the process to spare Calgenefurther expense.
"Unfortunately, FDA appears readyto sacrifice consumer confidenceand consumer protection to the godsof regulatory relief," testified Re-becca Goldberg, a biologist from theEnvironmental Defense Fund.
Genetically engineered foods havewon the backing of the United Na-tions' World Health Organization,the American Dietetic Association,the American Medical Associationand the Grocery Manufacturers ofAmerica, among others.
Safety's not guaranteedBut scientists also warn that
there's no such thing as a sure thing.Each year, hundreds of new variet-
ies of food plants are introduced intogrocery stores without governmentpre-approval. Examples include broc-coflower, a cross between broccoliand cauliflower, and the kiwifruit, abaseball -size oddity that in its nativeAsia is no bigger than a berry. Un-der federal law, it is food manufac-turers' duty to determine the safetyof their products.
Still, "there are very few thingsthat go into the food supply that wedon't know about," Maryansld said.
To create so much controversy,what, specifically, hath Calgenewrought?
The Flavr Savr has Just one geneticalteration. A tomato gene involved inripening has been taken out and re-inserted backward. This "antisense"position. Calgene theorizes, allowsthe tomato to vine-ripen, yet notsoften so much that it rots beforereaching consumers.
Regular tomatoes are picked whilegreen, then gassed with ethylene sothey ripen in the stores.
Yet gene insertion, for all its mys-tique, is not a precise science. Likean arrow, a gene can hit the bull's-eye, land on an outer ring, or miss itstarget altogether. If it lands on thewrong section of the genome (thecollective term for all of an organ-ism's hereditary material), it maynot work properly. Or it may causeunforeseen changes.
So, to make sure that the antisensegene has arrived at the proper site,Calgene inserts it with an attached"marker gene," which is easier tospot than the antisense gene.
The marker Calgene chose, fre-quently used in genetic engineering,is the kanamycin gene. Found in E.colt bacteria, the gene helps the or-ganism resist the killing effects ofantibiotics.
Critics say the marker gene mightsomehow force itself into the geneticcode of other crops and soil microor-ganisms. If it avoids death by stom-ach acid, it could infiltrate the genesof digestive-tract bacteria, a poten-tially deadly complication should thehuman host require antibiotics.
FDA scientist Thomas A. Cebulatold the committee that, "in all ofman's history," there was no evi-dence of ingested genes ever incor-porating themselves into the geneticcode of gut microorganisms.
That doesn't mean it's impossible,he acknowledged.
Gene's not a threatThe FDA says that, in terms of
allergic potential and possible inter-ference with antibiotics, the kana-mycin gene poses no threat.
A World Health Organization (WHO)report, issued after a 1991 conference,concluded that biotechnology tech-niques do not result "in food which isinherently less safe than that pro.duced by conventional .ones."
Genetic engineering opens up"very great possibilities of rapidlyimproving the quantity and qualityof food available," WHO said. It notedthat "a number of food additives,"such as amino acids, vitamins andenzymes, "are already derived fromgenetically modified organisms."
Like the FDA, it said new biotechfoods should be measured againstexisting products, using standard-ized safety and nutritional princi-ples.
Once those standards are set, theFDA says it will be able to morequickly evaluate biotech products.
That day can't arrive too soon forCalgene, for whom trailblazinghasn't come easy.
Financial analysts say that thecompany is burning up cash at sucha fast clip, it may be broke withintwo years.
Article from The Philadelphia Inquirer, 4/10/94
Genetically Improved Plants 17
BEST COPYAVAILABLE-
Program: Common Ground: Agriculture for a Sustainable FutureUnit 4: Third World Impact and Global Stability
Economic importance and interdependencyof agriculture throughout the world
Competency/Terminal Performance Objective
imports and exportsEvaluate the economic importance of global agriculture throughand recognize the complexity of agricultural interdependency.
Assess the interdependency of agriculture on a global basis.
Describe and demonstrate examples of agricultural trade, import and export com-modities and balances, and food security issues.
Predict future agricultural trends based on current and historical data.
Create a data chart to organize agricultural data by country, crop, imports, exports,and % of gross domestic product (GDP).
Describe and discuss the economic impact of the agricultural sector on nationaleconomies.
List five international government agencies that influence and affect agriculturearound the world.
Identify agricultural production practices used in various parts of the world.
Applied Academics Competencies
Communications
History
Mathematics
Science
Third World Impact and Global Stability 1
80
Common Ground: Agriculture for a Sustainable Future
Equipment, Supplies, References, and Other Resources
Activity #1- Ag Around the World:Crops, Production Practices,Imports/Exports
computer databases (optional)
Activity #2 - Agricultural Importing andExporting
newspaper (Wall Street Journal orNew York Times) to obtain currencyexchange rates
Activity #3 - The Domino Effect
50 dominoes
50 labels
Activity #4 - Jeopardy!-like Game
1. scissors
2. felt-tipped marker
3. Velcro dots or tape
4. 2 large poster boards (same size)
5. 2 buzzers or bells
REFERENCES/RESOURCES
U.S. Agriculture in a Global Economy-1985 Yearbook of Agriculture,U.S. Government Printing Office,Washington, DC0-484-628: QL 2, LC 85-600627
Activities to Enhance StudentUnderstanding of InternationalAgriculture available from OhioAgricultural Education CurriculumMaterials Service, 254 AgriculturalAdministration Bldg., The Ohio StateUniversity, 2120 Fyffe Road,Columbus, OH 43210-1067
Situation
These activities are designed for students in grades 9-12.
Third World Impact and Global Stability - 2
81
Common Ground: Agriculture for a Sustainable Future
students an opportunity to Ag Around the World: Crops, Productioninvestigate and summa-rize agricultural data forfive countries around the
Practices, Imports/Exports
Interest Approach
world Canada, Japan, Each day exported products are shipped worldwide, andMexico, United Kingdom,and United States andone economic unit
imported products arrive at the borders of countriesthroughout the world. Climate, soil, land availability,irrigation, government policies, technology, local econo-
Commonwealth of Inde- mies, taxes, tariffs, and culture all impact the crops thatpendent States (CIS). countries grow and export. These factors also determine
which products are more economical to import andwhich are impossible to produce domestically. Thisexercise provides a look at a small group of countries aswell as the independent states formerly of the SovietUnion. It shows how agriculture supplements theirnational economy.
See page 7. Teaching Procedure
Divide the class into six groups. Assign a country oreconomic unit to each group. Have the groups researchtheir assigned country to determine crops grown, pro-duction practices, agricultural items exported (alongwith volume and $ value), agricultural items imported(along with volume and $ value), and agriculture as apercent of gross domestic product (GDP). Each groupshould collect their data in the format given on page 7.
Third World Impact and Global Stability 3
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Common Ground: Agriculture for a Sustainable Future
The purpose of this activ-ity is to develop an under-standing of world trade bysimulating export activi-ties of specific agriculturalproducts with severalcountries. Have studentscheck a current edition ofthe Wall Street Journal orNew York Times to locatecurrency exchange rates.Then have them calculatethe price for each agricul-tural item in variouscurrencies.
See pages 8-9.
ACTIVITY 2Agricultural Importing and Exporting
Interest Approach
The U.S. is the largest exporter of agricultural productsin the world. The production from approximately oneout of every 2.5 acres of cropland is exported. U.S. farmexports generate income that spreads throughout thenational economy. More than one million people in theU.S. work in agricultural export-related jobs.
The U.S. is also one of the largest importers of agricul-tural products in the world. Every time American con-sumers drink a cup of coffee or a glass of iced tea; eat abanana split or a chocolate candy bar; add vanilla,cinnamon, or pepper to their food; wear silk clothing;or buy rubber tires, they are benefiting from agriculturaltrade. These and many other agricultural productsconsumed in the U.S. are produced in other countries.
Teaching Procedure
Divide the class into groups of 4 to 6 students. Have onestudent in each group represent the U.S. and the otherstudents represent one each of the assigned countries.Assign the countries to each group according to thenumber of students in the group. With the one U.S.representative, assign 3 countries to a 4-student group,5 countries to a 6-student group, and so on. If there are afew more students than comprise a full group, assignthem a particular country to work on as a team.
Third World Impact and Global Stability - 4
83
Common Ground: Agriculture for a Sustainable Future
This exercise provides avisual example of theimpact of interrelation-ships and interdependen-cies found throughout theworld in agriculture. Itprovides students with apicture of the complexitiesinvolved when a new lawor policy is enacted or anexisting one is changed.
ACTIVITY 3The Domino Effect
Interest Approach
So many things in the U.S. and throughout the world areinterrelated that when a decision is made to change anexisting system or implement a new one, many people,businesses, and other concerns are affected by thechange. Often the interrelationships are not fully under-stood or examined when a policy is changed or imple-mented. Provide students with some relatively recentexamples, such as the luxury tax and its repeal, andpassage of Proposition 187 in California against provid-ing education and social services to illegal immigrants.In both cases, the unilateral decisions made had enor-mous impact on the economic and social structures.
Teaching Procedure
In order to visualize the complexities in making a policychange, let's use as an example the current U.S. govern-ment subsidy program.
As a prominent legislator, you are able to obtain enoughvotes to eliminate the current government subsidyprogram. Make a list of all the people, businesses andother concerns that will be affected by this change. Writeone effect on each of the labels and stick one label oneach domino. Label one domino with the change inpolicy, "Elimination of agricultural subsidy program,"and set it up first, on end. Set up the rest of the dominoesin a pattern (such as branches of a tree) grouped bysimilarities (such as economic, social, health/safety,political, etc.).
When all the dominoes have been set up, start the actionby knocking over the "policy" domino. Watch the effecton all the others.
Third World Impact and Global Stability - 5
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Common Ground: Agriculture for a Sustainable Future
If the Jeopardy!-like boardwas already constructed inUnit 1, Activity #1, skip theadvance preparation proce-dures and insert the cat-egory/answer templatelocated on pages 10-11 inthis unit.
Advance Preparation
Prepare the Jeopardy!board by cutting 30 3x5inch windows spaced oneinch apart for game catego-ries and answers. Save thecutout windows to serve asflap covers for the answerportions. There will be 5windows across the top forcategories and an addi-tional 5 windows beloweach of these for answers.Answers for each categorywill be designated pointvalues of 10, 20, 30, 40and 50. Attach the secondposter board to the firstwith Velcro dots or tape.Tape together the answersheets provided and slidebetween the two posterboards. Reattach the flapsover the answers by tapingeach across the top to serveas a hinge. Use the mark-ing pen to designate pointvalue on each of the an-swer flaps.
ACTIVITY 4Jeopardy/ -like Game
Interest Approach
The growth in agricultural trade has given us a globalfood and agricultural system for the first time in history.Among other things, this system has greatly increasedfood security for the world as a whole, since it makesfood available on demand through trade. As a conse-quence, there have been no major famines in the post-World War II period except 1) where national govern-ments did not want the world to know about them;2) where the problem was so slow to be acknowledgedthat logistic problems made it impossible to respond insufficient time (as in Africa); or 3) both.
Teaching Procedure
Playing the game: Divide the students into 2 or 3groups. Provide the person at the head of each line withthe buzzer or bell. Flip a coin to determine which groupmakes the first selection. Open the flap selected toexpose the answer. The first person to ring the buzzergets to respond by providing a question for the revealedanswer. (Note: In many cases, there may be more thanone correct question to a given answer.) The first personwith the correct question scores the value on the flap. Awrong question results in a deduction of the value on theflap. When all flaps are exposed, the highest score wins!
Third World Impact and Global Stability - 6
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Common Ground: Agriculture for a Sustainable Future
Agriculture Around the World: Crops, Production Practices, Imports/Exports
PART 1 COUNTRY
Crops Grown Production Practices
Agricultural Volume Value Agricultural Volume ValueExports Imports
Agriculture as % of GDP
Assign a student to summarize the findings of each group in data chart format similar to this:
Country/Economic Crops Production Agricultural Volume Value Agricultural Volume Value Ag. as
Unit Grown Practices EXPORTS IMPORTS % GDP
Canada
CIS
Japan
Mexico
United Kingdom
United States
Questions
Of the countries studied, which ones are major exporters of wheat? cotton? corn?Which ones are major importers of wheat? cotton? corn?
How many agricultural products on your list are value-added exports; i.e., products that undergosome processing or are unprocessed but relatively expensive per unit because of high transporta-tion or storage costs? Examples are polished rice, corn gluten feed, animal foodstuffs, wheat flour,oilseed products, processed cotton, tobacco and seed products, horticultural and tropical products.It is estimated that over 40% of the more than one million jobs in the U.S. related to exportsinvolve value-added products.
In the U.S., exports of raw products add $1.13 per export dollar in economic activity. Value-addedproducts add $1.68 per export dollar. What percent increase over raw products do value-addedproducts generate?
Third World Impact and Global Stability 7
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Common Ground: Agriculture for a Sustainable Future
Agriculture Around the World: Crops, Production Practices, Imports/Exports
PART 2
Country (or Economic Unit) Monetary Unit Imported Crops
What are the lowest common units for U.S. exports for the above crops? (i.e., pounds, bushels,cartons, etc.) First have the class discuss what they think the common units of measure are foreach of the above crops.
You may want to let the students research prevailing prices for the commodities at their locallibrary. The following price list could also be used.
Crop
SoybeansCornCottonWheatRiceOrangesLettuce
Tomatoes
Unit Price/Unit(U.S. Dollars)
bushelbushelpoundbushelper 100 lb (cwt)per 38 lbper crate of 24 heads
(50 lb)25 lb cartons
$ 6.452.55
.723.208.50
10.008.00
5.00
Have the students representing the U.S. in each group "sell" a specified number of units(provided by the teacher) of the designated crops to each of the other countries representedby the other students in the group. Each of the students will need to calculate the properamount of money in his/her country's currency (according to exchange rates) to pay for eachof the crops, as well as a total per country. The student representing the U.S. should "collect"the money and convert the totals for each country back to U.S. dollars.
What happens if the U.S. dollar strengthens by 3%? Who benefits?
Extension: Have the students research export crops for each of the countries listed. Havethem reverse the procedure, selling those crops to the U.S.
Third World Impact and Global Stability - 8
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Common Ground: Agriculture for a Sustainable Future
Agriculture Around the World: Crops, Production Practices, Imports/Exports
Sample answers:U.S. sells soybeans, corn, cotton and oranges to Canada:Crop # Units Value/Unit Total Price
If the dollar strengthens by 3%, then 3% more foreign currency would be needed to purchase eachof the commodities indicated. When that happens, the U.S. benefits.
Third World Impact and Global Stability - 9
88
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mea
dow
s an
d pa
stur
e.
Tw
o of
the
man
y fa
ctor
sth
at d
irec
tly in
flue
nce
the
futu
re r
ole
of w
orld
agri
cultu
ral t
rade
.
Mor
e th
an 6
2% o
f th
ew
orld
's p
rodu
ctio
n of
this
crop
is in
Chi
na, t
he U
.S.
and
the
Sovi
et R
epub
lics.
An
orga
niza
tion
calle
d th
eW
FP th
at u
ses
food
aid
tofu
rthe
r de
velo
pmen
t in
need
y co
untr
ies
and
pro-
vide
s fo
od in
em
erge
ncie
s.
The
pre
dom
inan
t foo
dgr
ain
cons
umed
in th
ete
mpe
rate
zon
e.
The
cou
ntry
with
an
aver
age
farm
siz
e of
429
acre
s.
The
pro
cess
of
send
ing
dom
estic
ally
pro
duce
dgo
ods
to o
ther
cou
ntri
es.
The
cro
p th
at le
ads
the
wor
ld in
veg
etab
le o
ilpr
oduc
tion
(tho
ugh
palm
oil e
xcee
ds it
in w
orld
trad
e).
A U
nite
d N
atio
ns a
genc
yca
lled
WA
D th
at d
eals
with
proj
ect a
nd p
rogr
am f
inan
c-in
g, p
rim
arily
for
the
poor
-es
t dev
elop
ing
coun
trie
s.
The
cer
eal c
rop
cons
umed
thro
ugho
ut A
sia.
An
area
of
the
wor
ld w
here
farm
s ra
nge
from
10
acre
sto
a m
axim
um o
f 17
0 ac
res.
The
pro
cess
of
brin
ging
ingo
ods
or c
omm
oditi
esfr
om a
noth
er c
ount
ry f
orsa
le, u
se o
r pr
oduc
tion.
Thr
ee o
f th
e m
ajor
impo
rt-
ers
of w
heat
.
A g
roup
cal
led
the
WFC
that
con
vene
s an
nual
mee
tings
of
the
agri
cultu
ral
min
istr
y fr
om 3
6 m
embe
rco
untr
ies.
Part
s of
the
wor
ld w
here
corn
is th
e m
ajor
cer
eal
crop
.
A g
roup
of
coun
trie
s th
atle
ads
the
wor
ld in
pro
duc-
tion
of p
otat
oes,
bar
ley,
rye,
oat
s, s
unfl
ower
see
dan
d su
gar
beet
s.
Cal
led
the
GD
P, th
e m
ar-
ket v
alue
of
all g
oods
and
serv
ices
pro
duce
d by
agi
ven
coun
try
in a
giv
enye
ar.
Tw
o of
the
maj
or e
xpor
ters
of s
oybe
ans
and
soyb
ean
prod
ucts
.
An
orga
niza
tion
calle
dth
e IM
F' th
at is
con
cern
edw
ith m
aint
aini
ng s
tabi
lity
in w
orld
mon
etar
ym
atte
rs.
The
pri
ncip
al c
rop
in p
arts
of A
fric
a, L
atin
Am
eric
aan
d O
cean
ia, w
here
clim
ate
and
prev
ailin
g ra
infa
llpa
ttern
s hi
nder
cer
eal
prod
uctio
n.
Are
a of
the
wor
ld th
at is
heav
ily d
epen
dent
on
favo
rabl
e m
onso
ons.
Thr
ee o
f th
e se
ven
maj
ortr
ade
regi
ons
of th
e w
orld
.
The
cro
p w
ith h
igh
nutr
i-tio
nal v
alue
that
com
pris
esab
out 5
7% o
f al
l fee
d gr
ain
prod
uctio
n.
8990
JEO
PAR
DY
! Q
UE
STIO
NS
Stan
ds f
or"Y
ou A
re W
hat Y
ou E
at"
Whe
re in
the
Wor
ldL
et's
Tra
deC
rops
Wor
ldw
ide
Wha
t is
the
Food
and
Agr
icul
ture
Org
aniz
atio
n?W
hat a
re c
erea
l cro
ps?
Wha
t is
Can
ada?
Wha
t are
pop
ulat
ion
grow
thra
te, i
ncom
e gr
owth
,ch
ange
s in
die
tary
pre
fer-
ence
, and
pol
icy
chan
ges
inpr
oduc
ing
and
trad
ing
coun
trie
s?
Wha
t is
cotto
n?
Wha
t is
the
Wor
ld F
ood
Prog
ram
?W
hat i
s w
heat
?W
hat i
s th
e U
.S.?
Wha
t is
expo
rtin
g?W
hat a
re s
oybe
ans?
Wha
t is
the
Inte
rnat
iona
lFu
nd f
or A
gric
ultu
ral
Dev
elop
men
t?
Wha
t is
rice
?W
hat i
s th
e E
urop
ean
Com
mun
ity (
EC
)?W
hat i
s im
port
ing?
Wha
t are
the
Com
mon
-w
ealth
of
Inde
pend
ent
Stat
es, C
hina
, Jap
an,
Egy
pt, E
aste
rn E
urop
e, th
eE
urop
ean
Com
mun
ity, a
ndB
razi
l?
Wha
t is
the
Wor
ld F
ood
Cou
ncil?
Wha
t are
Lat
in A
mer
ica
and
Afr
ica?
Wha
t is
the
Com
mon
wea
lthof
Ind
epen
dent
Sta
tes?
Wha
t is
the
gros
s do
mes
ticpr
oduc
t?W
hat a
re U
.S.,
Bra
zil,
Arg
entin
a, a
nd th
eE
urop
ean
Com
mun
ity?
Wha
t is
the
Inte
rnat
iona
lM
onet
ary
Fund
?W
hat i
s ca
ssav
a?W
hat i
s So
uth
Asi
a(B
angl
ades
h, I
ndia
,Pa
kist
an, N
epal
, and
Sri L
anka
)?
Wha
t are
the
Eur
opea
nC
omm
unity
; Afr
ica;
the
Mid
dle
Eas
t; th
e Pa
cifi
cR
im; S
outh
& C
entr
alA
mer
ica;
U.S
., C
anad
a an
dM
exic
o; th
e C
omm
on-
wea
lth o
f In
depe
nden
tSt
ates
?
Wha
t is
corn
?
9
Common Ground: Agriculture for a Sustainable Future
Steps/Key PointsProblem-Solving Technique
Define the Problem
Global food security assuring that food is accessible to the world's people remainsan elusive goal. Although world food production over the past two decades has out-paced global growth, a large number of the world's inhabitants remain undernourished.Food security is primarily a concern of poor people and poor nations. At the globallevel, the primary problem is food distribution. Countries and individuals that lackpurchasing power cannot buy the food they need, even when supplies are abundant.Both individually and collectively, many nations have tried to provide food security ina number of ways. What are these ways? What impact might new technology have onthem?
What to Do (Steps) How to Do It (Key Points)
Decision/Recommendation
NATIONAL APPROACHES
Increasing domestic food production A beneficial, though sometimes costly, wayof insuring against trade-related risks economic (tariffs, trade restrictions, pricevariability), political (embargoes, export restrictions, policy-related conditions), andlogistical (transportation bottlenecks). This approach is also an important element offood security where transportation problems increase the risk and expense of relyingon external food supplies. How? Increased yields, more efficient farming practices,new technologies, instituting policies to encourage domestic food production forspecific crops.
Building national food security stocks Even with increased domestic production,countries must offset production variations to guarantee a stable food supply by1) accumulating national stocks or 2) relying on international stocks and trade tooffset more extreme variations. Since global production is less variable than nationalor regional production, holding stocks at the national or regional level requires largerreserves than holding them globally.
Advantages: More timely response to changes in production and savings of foreignexchange.Disadvantages: The expense of holding stocks, especially if storage is prolonged andcarrying costs are high.
(continued)
Third World Impact and Global Stability 12
93
Common Ground: Agriculture for a Sustainable Future
Steps/Key PointsProblem-Solving Technique
Decision/Recommendation (continued)
RELYING ON INTERNATIONAL MARKETS
This alternative to self-sufficiency involves either holding monetary reserves orrelying on food aid to supplement regular commercial purchases. These strategiesseek to maintain food imports at a level that can be financed without international aid,using trade to improve the diet and to cover national variability in production.
Advantages: Allows a country to specialize in commodities in which it has a competi-tive advantage; reduces the cost of holding and managing expensive stocks; permitsflexibility in responding to changing conditions.Disadvantages: Economic conditions may prevent access to global food markets;country may end up in weak foreign exchange position due to debt and falling exportearnings; food markets are unstable when global food supplies are low and the marketbecomes volatile.
Food aid - Helps out in severe emergencies or when a country is facing long-termfood deficits and has inadequate foreign exchange earnings.
Advantages: A practical short-term approach when needed.Disadvantages: Difficult to deliver quickly; requires extensive approval processwithin donor countries; subject to changing political and economic priorities withindonor countries, which may affect availability and allocation. Commodity availabilitygenerally reflects the surpluses of major donor countries (U.S., EC) and may notmatch consumption patterns or preferences in recipient countries. Also, food aid tendsto be less available when need is greatest when global supplies are short and pricesare high. In the long run, increased food security depends heavily on the pattern ofeconomic development, both within and between nations.
Third World Impact and Global Stability 13
94
Common Ground: Agriculture for a Sustainable Future
Situation-to-Be-ImprovedProblem-Solving Technique
Define the Problem
Most competitors in the global marketplace need additional skills and knowledge inorder to be effective. There is a multitude of new opportunities that present them-selves as many countries strengthen their economies, increase their personal incomelevels, and move into the consumer marketplace. What interdisciplinary skills andknowledge are necessary in order to work in careers which are global in nature? Howwould you propose to acquire them? Provide an action plan outlining the steps thatyou would need to take. Be creative in your approach.
Character-istics to BeConsidered
What Why CurrentSituation
Recommen-dations
Decision/Recommendation
Student action plans may range from developing knowledge through formal study(courses in business, language, psychology, etc.) to informal approaches such asimmersion in culture or language by living and working with an international family,business, or government overseas. Individual reading, computer discussion groups, andmaking use of the Small Business Association and associated international agenciesmay be some of the areas addressed in the action plans.
Interdisciplinary skills will be essential in order to deal effectively with differentcustoms, languages, cultural practices, internal and external policies, and governmentstructures. A background in sociology, psychology, communications, history andbusiness will be very helpful.
Third World Impact and Global Stability 14
95
Common Ground: Agriculture for a Sustainable Future
Possibilities - FactorsProblem-Solving Technique
Define the Problem
The U.S. is still competitive in world markets for most of its agricultural and forestexports, but its future position and comparative advantage are in question. To retainits competitive position, what are some of the factors/problems that need to be con-sidered in the future? What are possible solutions for each?
Factors to Consider Possibilities (Possible Solutions)
Decision/Recommendation
Comparative advantage is affected by investments in human and natural resources andin research and development of technology as well as by policy, marketing, and thetransportation system. It is critical for the future of U.S. agriculture to understand theinteractions and trends of these variables and to act on that knowledge.
To meet these challenges, the agricultural science and education system must attractand train scientists and specialists with skills in molecular genetics, human nutrition,soil and water sciences, international marketing, systems analysis, agricultural engi-neering, and other specialized fields.
Improved resource-saving technologies need to be incorporated into current productionpractices. The American farmer's strategy must be to invest only in things that willsignificantly lower per-unit costs. This often means output-increasing technology. Thecompetitive advantage of U.S. farming today and in the future lies less in its land andclimate than ever before.
New markets, rising from population increases in middle-income countries with goodeconomic growth rates, will provide avenues of opportunity for new and existing farmproducts.
Third World Impact and Global Stability 15
96
Common Ground: Agriculture for a Sustainable Future
Forked RoadProblem-Solving Technique
Define the Problem
Your company, Biotech Solutions, Inc., has developed a new crop with the followingcharacteristics:
O higher nutritional value than corn or riceO pest and drought resistanceO potential for significant yield increase
Your job is to market the seed from this product internationally to Mexico and China.First, create a name and a logo for your new product. Then create a marketing plan toensure that the crop is grown on 18% of the farmland in those countries by the end ofthe third year of introduction. In developing your plan, consider trade policies (tariffs,agreements, etc.), economics (transportation, communications, etc.), cultural differ-ences (language, customs, internal policies), and crop patent protection (so that theseed can't be saved and sold within that country, eliminating your future sales).Compare each of these areas for Mexico and China. After you have made your com-parison, decide which country would be your first choice for marketing this new crop.Justify your answer.
Factors to Consider Choices
Choice One Choice Two
Decision/Recommendation
Students may choose to address some or all of the following areas in each country:international selling strategies, marketing strategies, culture & customs, and agricul-tural practices. They may also propose some strategies of their own. Part of their planmight include education (of government personnel and farmers). Students should takecurrent and future trade agreements into consideration in their plans; for example, theNorth American Free Trade Agreement (NAFTA) and the General Agreement ofTariffs and Trade (GATT).
Third World Impact and Global Stability 16
97
Common Ground: Agriculture for a Sustainable Future
Effect-Cause
Problem-Solving Technique
Define the Problem
On January 1, 1994, the North American Free Trade Agreement (NAFTA) went intoeffect. NAFTA's main achievement is including Mexico in the economic mainstreamof North America. What are the implications of NAFTA in trading agricultural prod-ucts between Mexico, the U.S. and Canada?
Possible Causes Related Facts Accept/RejectCause
Decision/Recommendation
Even before NAFTA, the U.S. and Canada have had a free trade agreement since1988. The main difference since NAFTA is the addition of Mexico. As Mexicobecomes more industrialized and modernized, using the new opportunities for trade,its demand for foreign products can be expected to increase. Competitively, the U.S.is more likely to serve Mexican consumers, and Mexican agriculture is likely to becapitalized by American investment. For some crops, the U.S. will be facing morecompetition. But where the U.S. has a strong export presence, it should continue to dowell.
Agricultural efficiency will be the key factor. For example, in California and Arizonaagriculture is practiced very efficiently. That will be a definite advantage for the U.S.under free trade. California agriculture can effectively compete in the Mexican marketeven against Mexican products. For example, the U.S. can sell fresh tomatoes inMexico even though Mexico is a leading exporter of tomatoes.
Another key element is the change in the ejido (communal farm) system which hasdominated Mexican agriculture in the past. These farms are now dismantled. The landis opened up for investment opportunities for the U.S. in Mexican agriculture. BeforeNAFTA, this was impossible.
Third World Impact and Global Stability 17
98
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