where on-farm varieties were lost because of civil strife or
      other socioeconomic conditions. Maize and sorghum germplasm
      were reintroduced into Somalia agriculture after traditional
      varieties were lost during the protracted conflicts
      (Friis-Hansen and Kiambi, 1997). 
      Ethnoveterinary studies documented an elaborate classification
      of cattle disease and remedies among East African
      pastoralists. In Nigeria, one survey identified 92 herbs and
      plants used in ethnoveterinary medicine. A similar case was
      found in the Sahel: the Tuareg know the timing of the sheep
      reproduction cycle and its relationship to the seasonal cycle,
      giving them considerable control over stockbreeding. The
      Tuareg selectively use penile sheaths on rams to ensure that
      lambs are not born at the end of the dry season, when the
      nutrition for ewes is poor. 
       
        3.4.4 Biosafety 
        Concerns and debates about GM crops center around four
        major areas of concern: the threat to human, animal and
        environmental health; food and feed safety; the socioeconomic
        impact on small-scale farmers and developing country
        communities; and ethical and religious concerns. Of the
        11 developing countries growing genetically modified (GM)
        crops only South Africa is in SSA (James, 2007). South Africa
        grew 1.4 million ha in 2006—a 180% increase over
        the 0.5 million ha planted in 2005. South Africa realized
        US$164 million from commercializing GM crops (Runge
        and Ryan, 2004). 
      
        
          -  Environmental concerns center on the threat to biodiversity
            from continuous monoculturing of GM crops,
            the reduced need for landraces and the effect of modern
            agronomy on natural biodiversity. There might be increased
            fitness and weediness in plants not previously
            weedy (Johnson, 2000). The long-term stability of the
            transgene is not known. The effect on other organisms,
            the abiotic effect of the transgene on other organisms in
            the soil, air and water, and the long-term effects are not
            clearly understood (Wolfenbarger and Phifer, 2000).
 
          - Food and feed safety concerns relate to the toxicity
            that might result from expression of the transgene or
            the potential allergies it might cause (Metcalfe et al.,
            1996; Nordlee et al., 1996). The transgene might affect
            the nutritional content of the food or widespread use
            of antibiotic resistant genes used as markers could lead
            to increased resistance in clinical use (Hare and Chau,
            2002).
 
          - Economic concerns stem from worries that multinational
            companies will gain control over the food chain
            by patenting a technology, resulting in limited access
            by both small-scale farmers and developing country scientists.
            Furthermore, patenting the technology results
            in altered farming practices where the farmers can no
            longer save seed for replanting. There is concern that
            globalization and unfair trade practices such as the production
            of inexpensive good-quality commodities in industrialized
            countries could lead to income inequalities
            and threaten livelihoods in marginalized communities.
            The dilemma for Africa is how to enhance existing local
            and traditional AKST, including postharvest technologies
            and market—roads that will improve SSA food
            security, livelihoods and rural development—without
 
         
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                - exacerbating SSA’s deteriorating terms of trade. The
                  vast majority of food and feed crops Africans consume
                  are grown with almost no intergovernmental or donor
                  support from farmer-saved seed and farmer-developed
                  varieties. For this reason, the African Group at the
                  World Trade Organization (WTO) TRIPS Council have
                  supported maintaining patent exemptions on life forms
                  (article 27.3b) and have sought to protect the use of
                  traditional AKST at World Intellectual Property Organization
                  negotiations. Africa has also opposed attempts
                  to restrict farmers’ right to save and exchange seeds at
                  implementation negotiations of the Convention on Biological
                  Diversity and the International Treaty on Plant
                  Genetic Resources for Agriculture and Food.
 
              - Social concerns include a consumer’s right to choose
                whether to use or avoid GM food, religious and ethical
                concerns relating to dietary preference, the inability of
                farmers to save and replant seed, and threats to organic
                farming practices. The issue of labeling is an ongoing
                debate that has long embroiled countries. Some developing
                countries, including the SSA countries of Ghana,
                Kenya, Senegal and Swaziland in particular, prefer labeling
                GM foods (ICSTD, 2005). For informed decision
                making, labeling will have to take into account
                language, literacy level and public awareness.
 
             
                  
        Most of Africa’s crop exports that could be labeled as “possibly
        GM” and potentially shunned from European markets,
        in fact go to other African countries—80% of these
        crops from Kenya, 85% from Tanzania, 95% from Zambia
        and 99% from Uganda have destinations within the continent
        (Paarlberg et al., 2006). Uganda’s exports to the EU
        declined, from US$309 million in 1997 to US$185 million
        in 2002, and the share directed to the Common Market for
        Eastern and Southern Africa (COMESA) increased (Uganda
        Export Promotion Board, 2005). Therefore it is possible
        that most crop production that might at this time include
        GMOs could be traded within Africa itself. For as long as
        that is true, then the concern will be market rejections of
        GM products produced in Africa by Africans, rather than
        rejection by Europeans, Asians and those in the Middle
        East. Sub-regional agreements that promoted the trade of
        GM crops between these countries might in the short term
        preserve the ability of African GM producing countries to
        export their goods to other countries on the same continent
        (Paarlberg et al., 2006), but would neither be a guarantee
        of consumer acceptance nor of long-term competitiveness
        in possibly larger overseas markets that pay a premium for
        non-GM goods. The rationale for sub-regional agreements
        might not be convincing for countries such as Egypt, Ethiopia
        and Uganda who already export their goods outside of
        (non-Arab) Africa (Paarlberg et al., 2006). For example, by
        2005 Uganda’s exports to Europe climbed to US$249 million,
        a 44% increase over 2004 (Uganda Export Promotion
        Board, 2005), and Europe remains the single largest destination
        for Uganda’s exports. 
      Potential risks will need to be assessed and managed
        safely, and in a manner that inspires public trust in the regulatory
        systems (Persley, 2003). However, in most countries
        the capacity to address risk assessment, risk management
    and GMO testing is limited. This limitation could be ad-  |