ISLAMIC
COUNTRIES SET IMPLEMENTATION STRATEGY FOR BIOTECH
Expert members have agreed on an implementation strategy
for the development of biotechnology in Islamic countries.
They presented the following recommendations
during the workshop “Development of Biotechnology in Islamic Countries:
Sharing Experience on Issues and Challenges”:
- Mobilize
political authorities to support biotechnology through
legislation and to ensure financial support for research
and development.
- Establish
training and education centers in Islamic countries
with special emphasis on modern biotechnology tools,
information technology, and entrepreneurship.
- Establish
key research priorities at regional and national
levels.
- Increase
public awareness and understanding on biotechnology
and its applications
These
recommendations will be presented at the Islamic Educational,
Scientific, and Cultural Organization (ISESCO) Ministerial
Meeting in August 2006 in Kuwait.
The Expert Meeting was held in Cairo, Egypt, on 6-8 March 2006, and was organized
by ISESCO, the Organization of Islamic Conference Standing Committee for Science
and Technology (COMSTECH), and Inter-Islamic Network on Genetic Engineering
and Biotechnology (INOGEB). The meeting was chaired by Prof. Abdul Latif Ibrahim,
Director of the Biotech-IT Center Selangor, Malaysia.
For further information contact Prof. Faiq Billal, Director for Sciences, ISESCO
at: sciences@isesco.org.ma
BIOTECH
IN ISLAMIC COUNTRIES: ISSUES AND CHALLENGES
The workshop “The Development of Biotechnology in Islamic Countries:
Sharing Experiences on Issues and Challenges” was held in Cairo, Egypt,
on the 6th-8th of March. The event aimed to provide a forum for identifying
common challenges and prospects for the application of biotechnology in Islamic
countries, and promoting scientific collaboration among them. The workshop
was attended by delegates from member states of the Organization of the Islamic
Countries (OIC), including Bangladesh, Chad, Egypt, Eritrea, Indonesia, Malaysia,
Morocco, Pakistan, Senegal, Syria, Sudan, Togo, and Tunisia.
Biotechnology, in particular with regard to agriculture and health, was identified
by the meeting’s participants as an essential player in national development.
In addition, public science awareness and acceptance were highlighted as key
factors in promoting biotechnology. Key challenges for the development of biotechnology
in Islamic countries include: public funding for research and development,
absence of a legal framework in areas such as biosafety and intellectual property,
and inadequate support infrastructure. Opportunities to strengthen collaboration
and sharing of scientific information and capacity building were likewise identified.
During the workshop, Islamic scholars stated that Islam is not in contradiction
to the development of science and technology, if it is intended for the betterment
of mankind and does not harm the environment. However, efforts are needed to
bridge the communication gap between religious scholars and scientists for
the formulation of fatwas (Islamic laws) regarding biotechnology and
its applications.
The
Islamic Educational, Scientific, and Cultural Organization
(ISESCO); the Organization of Islamic Conference Standing
Committee for Science and Technology (COMSTECH); the
Inter-Islamic Network on Genetic Engineering and Biotechnology
(INOGEB); and the International Service for the Acquisition
of Agri-Biotech Applications (ISAAA) organized the event.
For further information contact Ismail Abdel Hamid, Director of the Egypt Biotechnology
Center at: ismael4@ageri.sci.eg
COMMENTARY
PREDICTS GOOD FUTURE FOR AG-BIOTECH
L
Val Giddings asks: What will the agricultural biotechnology
landscape look like in 2016? And what form will the 'doubly
green' revolution take? His commentary, “Whither
Agbiotechnology?” appears in the latest issue of
Nature Biotechnology, and predicts a good outlook for
the technology based on its progress so far.
Giddings
anticipates that the best is yet to come for agricultural
biotechnology, after its first ten years have shown
its potential and promise. He writes that
biotech will be “the dominant global paradigm in commodity agriculture,” and
that the products that will show the greatest growth will be those “with
value added for the end-consumer.” Such food products include those with
enhanced nutrition, or those with fewer worrisome components, such as trans-fats.
Giddings also expects biotechnology to extend to animals, especially in livestock
and fisheries improvements.
Several
roadblocks to progress in the field, according to Giddings,
are poor investments in research and development, regulatory
unreason, and low public acceptance. In the next few
years, however, he sees the agriculture will advance,
and consumers will increase their support of agricultural
biotechnology.
Giddings
is former Vice President for Food and Agriculture of
the Biotechnology Industry Organization. Read the complete
article at http://www.nature.com/nbt/journal/v24/n3/full/
nbt0306-274.html.
Contact the author at lvgiddings@yahoo.com.
EU
APPROVES BT CORN 1507
The
European Commission (EC) has issued in a recent statement
the approval of biotech maize Bt 1507 for sale in the
European Union (EU). The maize is genetically engineered
to resist insect pests Ostrinia nubilalis (European
corn borer) and Sesamia calamistis (pink stalk
borer), and was jointly developed by Pioneer Hi-Bred
International, Inc. (a DuPont subsidiary) and by Mycogen
Seeds, (a Dow AgroSciences subsidiary).
All
three applications for Bt 1507 for food and feed, and
for planting, have been approved by the European Food
Safety Authority (EFSA). EFSA has assessed the corn as
safe for consumption and cultivation as its conventional
counterpart. Other countries that have approved Bt 1507
include Argentina, Canada, Japan, and the U.S.
With
news from http://www.bloomberg.com/apps/
news?pid=10000082&sid=aZiqWx5mKP_o&refer=canada.
For more information, contact Adeline Farrelly at a.farrelly@europabio.org,
or read the Facts sheet on the corn’s approval,
as prepared by EuropaBio, at http://www.europabio.org/articles/EBio%20Background
%20Briefing1507maize_Update%20March%202006l.doc.
WARDA
SCIENTIST WINS RICE PRIZE
Dr.
Moussa Sié, Lowland Rice Breeder from the Africa
Rice Center (WARDA) , has been chosen as one of the two
laureates of the 2006 Fukui International Koshihikari
Rice Prize of Japan in recognition of his significant
contributions to rice production in sub-Saharan Africa.
Dr Sié shares the prize with Dr. Akihiko Ando
from Brazil, who has contributed to rice breeding by
using radiation-induced mutations.
Dr.
Sié has over 20 years experience in the selection
and improvement of rice varieties, with particular emphasis
on rain-fed systems; and is credited with the development
of several high-yielding and multiple stress-resistant
rice varieties. He was also instrumental in extending
WARDA’s upland New Rice for Africa (NERICA) rice
breakthrough to lowlands - one of the most complex rice
ecologies in the world.
Key
to Dr Sié’s success was the unique R&D
partnership model forged between WARDA and the national
programs of West African countries through the ROCARIZ
rice network, which facilitated the shuttle-breeding
approach to accelerate the selection process and achieve
wide adaptability of the Lowland NERICAs.
Read
the complete release at http://www.warda.org/warda1/
main/newsrelease/newsrel-sie-mar06.htm.
For more information, e-mail warda@cgiar.org, or visit http://www.warda.org.
CARTAGENA
MEETING IN BRAZIL TO DISCUSS BIOSAFETY
Detailed
documentation requirements for bulk shipments of genetically
modified (GM) corn, soybean, and other agricultural crops
that are intended for food, feed, or processing will
be decided upon during a United Nations Biosafety meeting
in Curitiba, Brazil on March 13-17, 2006.
The
Cartagena Protocol on Biosafety meeting will attempt
to finalize requirements after efforts to do so in a
meeting of the Parties in Montreal, Canada failed. The
Biosafety Protocol aims to ensure that the transboundary
movement of living modified organisms, commonly known
as GM organisms, does not adversely affect biological
diversity.
Background
documents are available at http://www.biodiv.org/doc/meeting.aspx?mtg=MOP-03.
Email David Ainsworth of the Secretariat of the Convention
on Biological Diversity at david.ainsworth@biodiv.org.
AGRI-BIOTECH
APPLICATIONS PROMOTED IN VIETNAM
Vietnam’s
Ministry of Agriculture and Rural Development (MARD)
plans to carry out 12 scientific research and pilot production
projects through the recently approved “Key Program
on Development and Application of Biotechnology in Agriculture
and Rural Development Through 2020”. Under the
program, the ministry will gradually improve the training
of human resources; build technical infrastructure; boost
international cooperation; receive and effectively implement
a number of advanced biotechnologies; and promote the
implementation of research and production projects. The
program aims to encourage technology transfer, form a
favorable market, and promote the formation and development
of the biotech industry in agriculture.
By
2020, the government plants to increase the proportion
of biotech crops to 70% of the nation’s total crop
area. More than 70% of the demand for disease-resistant
plant varieties will be met by the biotechnological industry;
and more than 80% of the area under vegetable and fruit
cultivation will use fertilizers and plant protection
products produced by biotechnology.
More
news available at http://www.vnanet.vn/default.asp?
LANGUAGE_ID=2.
For more information on this article, e-mail Le Hien
of the Vietnam Biotechnology Information Center at hienbiotechvn@pmail.vnn.vn.
RICE
ENGINEERED WITH SHEATH BLIGHT RESISTANCE
Sheath
blight is a disease of rice that afflicts the crop in
most rice-growing areas of the world. Caused by the fungus Rhizoctonia
solani, sheath blight is controlled by fungicides,
a practice which is neither practical nor sustainable,
and causes damage to both human health and the environment.
Genetically engineering R. solani resistance
into rice is thus a promising approach for the management
of sheath blight disease.
Krishnan
Kalpana and colleagues of Tamil Nadu Agricultural University,
India, take the steps toward this goal as they undertake “Engineering
sheath blight resistance in elite indica rice cultivars
using genes encoding defense proteins.” Their work
appears in a recent issue of Plant Science. The authors
aimed to develop rice cultivars with enhanced resistance
to sheath blight by genetically transforming high yielding
indica rice cultivars, ADT38, ASD16, IR50, and Pusa Basmati1
(PB1), with the rice tlp gene, which encodes
a pathogenesis-related (PR) protein. PR proteins can
enhance plant resistance to pathogens when over-expressed.
The
researchers report that the engineered rice had increased
resistance to R. solani when compared with non-transformed
plants; and that resistance was enhanced when tlp was
co-transformed with rice chi11, a gene encoding
a chitinase, another anti-fungal protein. In addition
to sheath blight resistance, the tlp or chi11 transgenic
lines were also resistant to the rice sheath rot pathogen, Sarocladium
oryzae.
Subscribers to Plant Science can read the complete article at http://dx.doi.org/10.1016/j.plantsci.2005.08.002
TOMATO
EQUIPPED WITH LEAF CURL VIRUS RESISTANCE
Tomato
is an important vegetable crop to many countries, but
is plagued by a variety of viral diseases. One of the
most devastating viruses is a group with the generic
name Tomato Leaf Curl Virus (ToLCV), which are transmitted
by whiteflies, and which cause tomato leaf curl disease
(ToLCD). Efforts to breed tomato varieties resistant
to the disease have hitherto been unsuccessful, since
natural sources of resistance are not available.
Genetically
engineering resistance remains a viable alternative to
equipping tomato with protection against ToLCV. One method
is introducing pathogen-derived resistance (PDR), by
either allowing transgenic tomato to produce a shorter
version of the viral protein (protein-mediated resistance)
or RNA (RNA-mediated resistance). Shelly Praveen and
colleagues of the Indian Agricultural Research Institute
investigate the possibility of “Engineering tomato
for resistance to tomato leaf curl disease using viral
rep gene sequences” in a recent issue of the Plant
Cell, Tissue, and Organ Culture journal.
Scientists
transformed, via Agrobacterium¸ tomato
cells with replicase (rep) gene sequences of ToLCV. Transgenic
plants were tested for disease resistance by exposing
them to a high population of whiteflies reared on virus-infected
plants. Researchers recorded a high level of resistance
to ToLCV and inheritability of the transgene, up to the
T2 stage following challenge inoculation with the virus.
The mechanism of resistance, according to researchers,
appears to be RNA-mediated, since plants carried the
untranslatable anti-sense rep gene.
Subscribers
to the journal can read the complete article at http://dx.doi.org/10.1007/s11240-005-7858-8.
RESEARCH
DOCUMENTS FUNGICIDE-HERBICIDE INTERACTION IN SOY CROP
Fungicide
seed treatments are becoming increasingly popular for
use with glyphosate-tolerant soybean, but can the pesticide
combination affect crop yields? Researchers from the
University of Illinois and Michigan State University
conducted a two-year field study to explore possibilities
of “Fungicide–herbicide interaction in soybean
(Glycine max).” Their findings appear in a recent
issue of Crop Protection.
Scientists
used a combination of six seed treatments (thiabendazole
(TBZ), pentachloronitrobenzene (PCNB), captan, TBZ/PCNB/captan,
fiudioxonil, and a fungicide-free control) and six weed
control treatments (imazethapyr, imazamox, glyphosate,
glyphosate/imazethapyr, glyphosate/cloransulam-methyl,
and a hand-weeded control). All 36 combinations were
evaluated in soy planted in four different environments
in Illinois, USA.
Researchers
found that: 1) fungicide treatments did not significantly
affect the crop’s response to the herbicide treatments;
2) fungicide, herbicide, or fungicide–herbicide
combinations did not significantly affected crop yield;
and 3) the fiudioxonil/no herbicide treatment was the
only treatment whose yield was significantly different
from that of the no fungicide/no herbicide control.
Subscribers
to the journal may read the complete article at http://dx.doi.org/10.1016/j.cropro.2005.03.013.
HUNGARY
TO HOLD BIOTECH CONFERENCE
The
Hungarian Biotechnology Association will hold “Biotechnology
in Hungary,” a conference that will tackle the present
situation of the biotechnology sector in Hungary; governmental
assistance; grant opportunities; innovation in Hungary;
Venture Capital investment in biotechnology; and spin-off
companies. The conference will be held on the 23rd of March,
2006, from 10:00 am to 6:00 pm at the Novotel Budapest
Centrum, Budapest, Hungary. The detailed agenda of the
event and the registration form are available at http://www.hungarianbiotech.org/html_eng/konf2006.htm.
To attend, register by returning the registration form
to info@hungarianbiotech.org.
WORKSHOP
FOR TRAIT DETECTION SLATED
A
Biotech Trait Detection Workshop will be held on May 8-10,
2006 at the Iowa State University Seed Science Center,
Ames, Iowa, U.S.A. The workshop will present and discuss
the technical and scientific challenges in trait detection,
and provide hands-on training in the current process and
PCR methodologies utilized for biotech trait detection.
Also scheduled is a round table discussion on quality control
issues. For more information, visit http://www.ucs.iastate.edu/
mnet/biotechtrait/home.html
BIOSAFETY
COURSE SET FOR MAY
A
practical course on the evaluation of field release of
genetically modified plants will be
held in Florence, Italy, from the 15th to the 19th of
May, 2006.
Organized by the International Center for Genetic Engineering and Biotechnology
(ICGEB), the course is designed for people in a position to evaluate applications
for the release of GMOs, primarily members of the national competent authorities
and officials engaged in the implementation of the Cartagena Protocol. For
more information, contact courses@icgeb.org,
or visit http://www.icgeb.org/MEETINGS/CRS06/15_19maggio.pdf. |
ANNOUNCEMENTS
SECTION NOW UP IN KC SITE
The
Knowledge Center site (http://www.isaaa.org/kc)
is now home to a special section on coming meetings, courses,
and workshops related to crop biotechnology worldwide.
The list will be updated regularly. Please write to knowledge.center@isaaa.org if
you would like your event to be included in the list. To
view the list of events for 2006, visit http://www.isaaa.org/kc/
bin/Home_Event/index.htm.
NEW
DATABASE AVAILABLE
CropLife
International has released a new database online, to aid
researchers in locating peer-reviewed, published studies
highlighting the benefits of agricultural biotechnology.
Users can search the database by crop, traits, country,
region, and impact area. Visit the database at http://www.croplife.org/
biotechdatabase.
FOREST,
GENOMICS BOOK RELEASED
What
is the future of transgenic conifer plantations? The recently
released book, “Landscapes, Genomics and Transgenic
Conifers (Managing Forest Ecosystems)” addresses
this question. The book has information on policy, forest
history, genomics, metabolism, pollen dispersal and gene
flow, landscape ecology, evolution, economics, technology
transfer, and regulatory oversight. One chapter, “Foresters
and DNA” is available at http://phe.rockefeller.edu/
docs/ForestersAndDNA.pdf.
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