Technological improvement has substantially transformed our farming practices over time, but just how much has been driven by advances in natural farming technologies?
The World Resources Institute (WRI) has estimated how far farming practices have improved over time. At its nearly 10-year-old Climate Solutions Conference, WRI distributed a “Food Production Analysis Toolkit” to participants. The toolkit describes the trends in farming from a climate change perspective. The toolkit provides trends in agriculture over a 70-year period, from 1947 to 2012. The toolkit shows that “agriculture’s long-term capacity to boost the climate was weaker than it appears on paper.”
A plethora of professions can be associated with the mere study itself, with even more of them associated with the subject matter of the study, its presentation and the organisation of something like the Climate Solutions Conference.
Data analysts have emerged as professionals who deal with a specific field of computer science, namely data modelling and perhaps even big data analysis, to name one example. Another example would be that of the organisational staff involved with the technical aspects explored, with someone who has perhaps completed project management courses at Pacific Training fitting into any of those structures, including the organisation of the conference itself.
For any project to even get conceptualised, someone has to be involved with it at the level of project management…
The toolkit goes into detail about the extent to which climate change will affect agriculture. This is particularly relevant given the extent to which agriculture has driven increases in greenhouse gas emissions (GHGs) over the past several decades. Agricultural production has grown tremendously in the developed world since the mid-20th century.
Overall, agricultural production has increased by over 200% since 1950 in developing countries and at least 130% in developed countries.
Total agricultural production in developing countries has grown more than 130% since 1950. However, the result is lower net agricultural output than would have been the case if this had not been achieved. This largely results from agricultural production in developing countries becoming less efficient over time. In addition, lower natural rates of crop reproduction, lower use of fertilizer, and lower losses of crop yields to natural processes contribute to lower overall agricultural net output. In addition, it is important to note that some countries that are in the process of transitioning away from traditional agricultural practices have experienced negative growth in agricultural net output over the same period.
In developing countries, GHG emissions from agriculture decreased by about 65% from 1950 to 2000. However, agricultural emissions in developing countries increased over the past twenty years.
Agricultural emissions increased due to rising production and consumption.
Overall, agricultural GHG emissions in developing countries have increased since the 1990s, in some cases significantly.
When considering the cumulative increase in emissions from agriculture since 1990, one could conclude that agricultural GHG emissions are increasing globally.
Much of this increase in emissions has occurred in developing countries.
Moreover, emissions in developing countries are expected to increase over the next two decades, although the pace is projected to be lower than projected.
So, in the wake of the realisation that solid career prospects reside in the containment of environmental impacts caused by a growth in the agricultural sector, perhaps the best bet it looking towards the fact that project management will always perhaps be the major role involved.