Assignment 3 2026
Unique number:
Due date: August 2026
QUESTION 1: Societal Impacts of Agricultural Technology
Agricultural technology includes scientific knowledge, machinery, biological methods
and digital systems that improve decisions or operations during food production,
processing and distribution (Food and Agriculture Organization 2022). Its value
should therefore be judged through productivity, human wellbeing and ecological
care because a profitable invention can still deepen inequality or damage natural
resources. South African agriculture contains large commercial farms, emerging
producers and small household plots, so the same technology can produce very
different outcomes across these farming settings (Jacobs et al. 2018).
Economic impacts
Agricultural technology can raise farm income when accurate information helps
, QUESTION 1: Societal Impacts of Agricultural Technology
Agricultural technology includes scientific knowledge, machinery, biological methods
and digital systems that improve decisions or operations during food production,
processing and distribution (Food and Agriculture Organization 2022). Its value
should therefore be judged through productivity, human wellbeing and ecological
care because a profitable invention can still deepen inequality or damage natural
resources. South African agriculture contains large commercial farms, emerging
producers and small household plots, so the same technology can produce very
different outcomes across these farming settings (Jacobs et al. 2018).
Economic impacts
Agricultural technology can raise farm income when accurate information helps
producers apply seed, fertiliser, water and crop protection products where they are
actually needed. Precision farming combines field mapping, soil testing, positioning
systems and variable application equipment, which allows a producer to manage
differences within the same field instead of treating every area equally (Jacobs et al.
2018). Better targeting can lower avoidable input costs, improve yields and reduce
production risks, while reliable production can also support processors, transport
businesses and food markets beyond the farm. These gains matter in South Africa
because unstable rainfall and rising input prices place pressure on the financial
survival of crop producers.
A practical example comes from eighteen precision farmers in the Schweizer
Reneke maize region, where variable fertiliser application was described as the
strongest economic benefit. Every adopting farmer reported that the investment
made financial sense, while the conversion costs were recovered within two years
and sometimes within one year (Jacobs et al. 2018). The same farmers reported
yield improvements ranging from 0.5 to 2.5 tonnes per hectare, although these
figures reflected farmer experience within one region rather than a guaranteed
national result. This example shows that precision farming can improve profitability
when the technology fits the crop, soil conditions, farm size and management ability.
The economic benefit is not shared equally because equipment, software, mapping
and technical advice require money before any saving appears. Farms below five