The importance of a resilient agriculture sector in providing food security, livelihoods, and household income was highlighted in many countries by the recent pandemic, as was the capacity of the sector to cushion the negative impacts of the subsequent economic slowdown. This has been the case in Egypt, where agriculture has been resilient to the health crisis in comparison with the service and industry sectors (Breisinger et al. 2020). However, the sector’s resiliency is gradually being corroded by climate change, with lasting, harmful effects for agriculture and food systems.

Climate change negatively affects Egypt’s agriculture sector. This brief summarizes the results of a modeling exercise to examine a range of climate change adaptation approaches to counteract agricultural productivity declines. Rather than simulating a single technology, a ‘suite of technologies’ approach was used. For several food crops, none of the technology suites, individually or in combination, are shown to counteract the adverse impacts of climate change. For these crops, which include maize, oilseeds, pulses, and sugar, even stacking of technologies will not return productivity to pre-climate change levels. However, for fruits and vegetables, potatoes, rice, and wheat, crops less adversely affected by climate change, increased investments in climate changeresponsive crop traits, soil fertility improvement, water management, crop protection, or a combination of these technologies can counteract the adverse impacts of climate change on agricultural productivity. From a policy perspective, strong cooperation with the rest of the world on climate change adaptation will ultimately benefit Egyptian consumers. Doing so will reduce disruption of global food markets, which is of particular importance for countries, like Egypt, that are well integrated into those markets. In particular, Egypt’s economy and all Egyptian consumers benefit from the importation of lower-value, high water-consuming cereals under the hotter and drier conditions that can be expected in Egypt in the future due to climate change.

With climate change, Egypt’s already arid climate will face even higher temperatures and lower rainfall over key agricultural areas, requiring further urgent adaptation investments. Data from three general circulation models of climate were used to better understand the likely effects of climate changes on Egypt’s agricultural sector. The findings show largely adverse biophysical effects of climate change by 2050. Compared to a no-climate change scenario, yields for food crops are projected to decline by over 10 percent by 2050 due to higher temperatures and water stress as well as increased salinity of irrigation water. The highest biophysical yield declines are estimated for maize, sugar crops, and fruits and vegetables. Moreover, due to the country’s dependence on food imports, Egypt is not only affected by climate change impacts at home, but also by impacts in other food producing countries. Climate change-induced increases in food prices will reduce Egypt’s food import demand, while also dampening demand for Egypt’s exports. The implications for Egypt are tighter food markets with both reduced domestic production and increased difficulties to import food making it more difficult to augment domestic food supplies. This situation suggests the need for investments in climate change adaptation in the agriculture sector. Global cooperation to mitigate greenhouse gas emissions is also warranted given the high cost to Egypt’s society from adverse climate change impacts worldwide.

Highly vulnerable to the effects of climate change, heat waves in Egypt are increasingly severe and frequent, raising the already high evaporation rate, accelerating crop transpiration, increasing soil aridity and elevating water requirements for both human and agricultural consumption in a country where water is imported. The forecasted spike in rainfall variability will affect flow of the Nile River, increasing both drought and high-flow years. While Egypt must produce more food for its rapidly growing population and confront high levels of child malnutrition, agricultural performance is slowing due to inefficient use of land, labour, water and energy along with environmental degradation and limited access to new technology, all of which favour increased incidence of pests and disease. Having tested climate smart agriculture (CSA) in four of Egypt’s most significant value chains – dairy, dates, maize and wheat – the authors demonstrate that CSA practices, technologies and policies will increase agricultural productivity and incomes, strengthen resilience to climate change and improve mitigation of its effects. These important, evidence-based findings have bearing well beyond Egypt’s borders. This publication is part of the Country Investment Highlights series under the FAO Investment Centre's Knowledge for Investment (K4I) programme.

This book gathers contributions discussing climate change in Egypt from an agricultural perspective. Written by leading experts, it presents state-of-the-art insights and the latest research developments in light of the most recent IPCC report. Focusing on identifying the specific phenomena that affect climate change in Egypt, the book also addresses the effects of climate change in Egypt, particularly examining the quality and quantity of water resources as well as the socio-economic impacts of climate change on agricultural activities. Furthermore, it explores alternative solutions to support agriculture and food security and raises awareness of adaptation and protection as the key to adapting to the risks posed by climate change. Covering the four fundamental pillars of climate change: food security, availability, access and stability, this book is a valuable resource for stakeholders involved in achieving the 2030 sustainable development goals in Egypt and all countries with similar climatic conditions. It is also a unique source of information and updates on climate change impacts for graduates, researchers, policy planners, and decision-makers.

Agricultural and food policies will play an important role in making Egypt’s food system fit for future challenges, including resilience to shocks, such as the ongoing COVID-19 pandemic. This brief highlights the importance of enabling farmers so that they can contribute significantly to a broader transformation and to resilience of Egypt’s food system and rural economy. Five areas of action are highlighted: Invest in a renewed system of agricultural extension services, with an emphasis on new technologies and production systems and on nontraditional crops. Ease rigidities for farmers and increase the market orientation of the agriculture sector, including markets for fertilizer and staple crops. Revisit the current irrigation management system to allow for the adoption of new irrigation technologies and increased efficiency of water usage. Support the development of agro-processing value chains where there are missing markets or market frictions in order to achieve a sustainable and nutrition-sensitive food system. Coordinate agricultural policy with policies of other government ministries to support rural transformation and employment opportunities off the farm.

This volume discusses the need to adopt Climate-Resilient Agriculture (CRA) practices to address the increasing global impact that climate change has on agricultural productivity and agriculture-dependent communities. This approach applies technological, policy and economic measures to achieve sustainable agricultural growth in the sectors of grain, fruit, vegetable, fiber, feed, livestock, fisheries and forestry, with the ultimate goal of adapting and building resilience to climate change. The book also uses GIS, crop modeling and remote sensing techniques for future climate resilience applications in agriculture, and covers pest control measures that avoid the use of pesticides to boost crop and livestock productivity for improved food security. The book will be of interest to researchers and students in environmental science, climate science, sustainability and agriculture, as well as policy makers and environmental organizations.