POLLINATORS POLLINATION AND FOOD PRODUCTION
individual_chapters_pollination_20170305
individual_chapters_pollination_20170305
You also want an ePaper? Increase the reach of your titles
YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.
THE ASSESSMENT REPORT ON <strong>POLLINATORS</strong>, <strong>POLLINATION</strong> <strong>AND</strong> <strong>FOOD</strong> <strong>PRODUCTION</strong><br />
406<br />
6. RESPONSES TO RISKS <strong>AND</strong> OPPORTUNITIES ASSOCIATED<br />
WITH <strong>POLLINATORS</strong> <strong>AND</strong> <strong>POLLINATION</strong><br />
knowledge there is no evidence for the efficacy of marketbuilding<br />
responses.<br />
In France, an agri-environment scheme under the European<br />
Common Agricultural Policy provides economic support<br />
directly to beekeepers who place hives in areas of high<br />
biodiversity (le dispositif apiculture (API); see section 6.4c).<br />
6.4.4.4 Social and behavioural responses<br />
The two main social and behavioural responses for<br />
managed pollinators are community engagement through<br />
participatory processes, and voluntary codes of practice.<br />
Community engagement could specifically include better<br />
coordination of growers with beekeepers and other<br />
managers of pollinators, especially in terms of pesticide<br />
use (e.g., providers of Osmia spp. to orchards, and alfalfa<br />
seed farmers who manage Nomia melanderii in the USA<br />
and Canada). It could also include provision of forage for<br />
managed bees at relatively large scales, including, for<br />
example, along beekeeper migration routes.<br />
An example of the benefits of communities working together<br />
comes from Kenya (Rose et al., 2014). In 2009, the Kenyan<br />
Ministry of Agriculture, Livestock and Fisheries in partnership<br />
with World Neighbours, a development organization,<br />
began working with farmers to introduce beekeeping as<br />
a way to diversify livelihoods. Women were provided with<br />
new beehives and received training and technical support<br />
from Ministry of Agriculture extension workers (Atakos<br />
and Recha, 2013). Women’s groups formed to support<br />
and empower each other and average honey yields<br />
doubled from about 5 kg per beehive/year to 10 kg and<br />
above (Macoloo et al., 2013). Some groups split earnings<br />
among the group or reinvest them into group functions. In<br />
addition to the economic benefits from honey production,<br />
neighbouring farmers have also experienced improved yields<br />
with their mango trees (Atakos and Recha, 2013). This case<br />
study offers an example of a government programme that<br />
not only promotes pollination, but also reduces poverty and<br />
empowers rural women.<br />
There are examples of community-based voluntary codes<br />
of practice relating to managed pollinators. In the Mbulu<br />
highlands (Tanzania), there is a general agreement that bees<br />
and beehives should not be disturbed (Tengo & Belfrage,<br />
2004). In the Kobo system in Ethiopia, families own groups<br />
of trees in which they can place their bee hives. These trees<br />
cannot be cut down and no one else can use these trees<br />
for beekeeping (Abebe and Lowore, 2013). The community<br />
tradition was recognized and strengthened by a forest<br />
protection agreement developed as part of participatory forest<br />
management, under the Ethiopian Government’s Non-Timber<br />
Forest Product and Participatory Forest Management (NTFP-<br />
PFM) project (Abebeand Lowore, 2013). Similar practices<br />
could be enacted as part of a bio-cultural community protocol<br />
in the future (Bavikatte and Jonas, 2009).<br />
6.4.4.5 Knowledge responses<br />
There are four primary knowledge responses associated<br />
with managed pollinators. The first two are related to<br />
improved data on general properties of managed pollinators,<br />
first, monitoring and evaluation to give a big-picture idea of<br />
threats at large scales, and second, work to quantify the<br />
economic dimensions of managed pollinators, in particular<br />
their benefits. Previous work has shown that large-scale<br />
monitoring is very valuable in identifying threats at large<br />
spatial and temporal scales (e.g., Genersch et al., 2010;<br />
Pettis and Delaplane, 2010). Economic valuation efforts<br />
have been helpful but have tended to give very large ranges<br />
in valuation estimates, in part depending on the valuation<br />
methodology used (see Chapter 4).<br />
A third knowledge response is improvement in technical<br />
knowledge transfer, in particular to farmers and beekeepers.<br />
While there is significant agreement that such knowledge<br />
transfer could improve pollinator management, there are few<br />
if any data on the effects of, e.g., beekeeper education on<br />
tangible outcomes such as large-scale colony health.<br />
The fourth response is maintaining and documenting<br />
traditional and indigenous knowledge surrounding managed<br />
pollinators, including its application to modern pollinator<br />
management practices and incorporation into global markets<br />
(see Chapter 5, section 5.4.10). Such knowledge is focused<br />
on management of social stingless bees (meliponines) and<br />
honey bees (including both A. mellifera and A. cerana).<br />
6.4.5 Urban and transport<br />
infrastructure<br />
This section considers responses that specifically take<br />
place in urban or suburban contexts, or are associated with<br />
built infrastructure such as roads, railways and powerlines.<br />
The impacts of urbanization, and patterns of pollinator<br />
diversity and abundance in urban areas are discussed in<br />
section 6.2.1.1.<br />
6.4.5.1 Technical responses<br />
6.4.5.1.1 Conserving pollinators’ habitat<br />
Urbanization has been demonstrated as a threat to<br />
pollinator conservation by causing habitat loss and<br />
fragmentation (McKinney, 2008). In a 2009 review,<br />
Hernandez et al. suggested that conserving larger fragments