Climate Change

Climate change, a global phenomenon characterized by alterations in weather patterns, rising global temperatures, and an increase in extreme weather events, poses a significant challenge to sustainable development and directly impacts the United Nations' Sustainable Development Goals (SDGs). The SDGs, a collection of 17 interlinked global goals designed as a "blueprint to achieve a better and more sustainable future for all" by 2030, are intrinsically connected to climate action.

Central to this relationship is SDG 13: Climate Action, which calls for urgent measures to combat climate change and its impacts. This goal acknowledges that without immediate and sustained action to reduce greenhouse gas emissions, the achievement of other SDGs is at risk. Climate change exacerbates existing challenges such as poverty (SDG 1), hunger (SDG 2), and health issues (SDG 3) by disrupting livelihoods, food security, and health conditions. For instance, increased temperatures and changing precipitation patterns affect crop yields, leading to food insecurity. Similarly, the spread of diseases is influenced by climatic conditions, directly impacting public health.

Furthermore, climate change has a disproportionate impact on vulnerable populations, including those living in poverty, exacerbating inequalities (SDG 10). It affects access to clean water (SDG 6) and sanitation, with changing weather patterns disrupting water supply. The degradation of natural habitats and ecosystems under climate stress threatens life below water (SDG 14) and life on land (SDG 15), leading to biodiversity loss and affecting the livelihoods of those dependent on these ecosystems.

The economic impacts of climate change are also profound, affecting sustainable industrialization (SDG 9) and undermining economic growth (SDG 8). Severe weather events cause extensive damage to infrastructure and lead to economic losses, while changes in climatic conditions can impact industries such as agriculture, fishing, and tourism.

Moreover, climate change poses challenges to achieving sustainable cities and communities (SDG 11) as urban areas face increased risks of flooding, heatwaves, and air pollution. This necessitates the development of resilient infrastructure and adaptive urban planning. Additionally, the energy sector, integral to most economic activities, must transition towards clean and renewable sources (SDG 7) to mitigate climate change, highlighting the interdependence of the SDGs.

Global partnerships (SDG 17) are crucial in addressing climate change, as it is a global issue requiring international cooperation and funding. Developed countries are urged to support developing nations in climate mitigation and adaptation efforts, recognizing the shared responsibility and differing capacities among nations.

Elsevier,

Gioia Falcone, Christopher S. Brown, Isa Kolo, David Banks, Orestis Angelidis, Chapter 7 - Geothermal production, injection, and storage engineering, Editor(s): Silviu Livescu, Birol Dindoruk, Geothermal Energy Engineering, Elsevier, 2025, Pages 181-220.

The chapter aligns with UN SDGs 7 (Affordable and Clean Energy) and 13 (Climate Action) by advocating for the use of geothermal technologies to provide clean, sustainable energy and reduce greenhouse gas emissions, contributing to the transition to a more sustainable energy future.

Heatwaves driven by climate change significantly increase the frequency and duration of power outages in China, with projected future increases emphasizing the need for grid upgrades and adaptive strategies.
This study shows that climate change has significantly decreased crop yields and heightened food insecurity in sub-Saharan Africa, and although adaptation strategies provide some relief, major challenges persist, highlighting the need for targeted resilience policies.
Elsevier, Agriculture Toward Net Zero Emissions, Volume , 1 January 2025
Since 2016, there have been significant developments in agrivoltaic farming and the role of solar energy harvesting. The use of agrivoltaic farming applications differs between various countries due to challenges such as technical and economic ones. A short description of various solar panels has been presented. It discussed plant parameters for agrivoltaic system use, an especially possible role of light saturation point. Technical parameters for optimization of agrivoltaics—how various heights, spacing, impact of density the shading under the panels.
This article presents a heat-pump-coupled sorbent system to simultaneously harvest water from air and regulate indoor environments, addressing global challenges related to water scarcity and energy-efficient air conditioning.
Agriculture is key to global food security and is a pivotal component of the United Nations' Sustainable Development Goals. However, the increasing utilization of fossil fuels to power farm machinery is a source of concern due to the established negative consequences of greenhouse gas (GHG) emissions on climate variability, with dire consequences for plants, animals, human settlement, and social and economic activities. Therefore, a revolutionary campaign is needed for innovative, intelligent, and clean technological advancement in the agricultural sector, such that carbon emissions can be mitigated with increased penetration of renewable energy sources (RESs). The solar photovoltaic (PV) system offers tremendous advantages in reducing carbon emissions among land-based RESs. The usage of RES to power agricultural equipment has significantly reduced carbon emissions in the agricultural sector. Farmers are now adopting biogas - produced from wastes of organic materials like plants and animals, for cooking and powering farmhouses and equipment. Solar-powered water pump irrigation systems can reduce carbon emissions by 97%–98% compared to conventional fossil fuel-powered systems. A solar powered tractor was found to produce a carbon footprint of 5.75 kg CO2 eq kg−1 vehicle annually, showing a potential 90% reduction in emissions. Also, a RES-based water pump system, RES-based maize sheller, and RES-based incubator revealed a potential reduction in GHG emissions up to 98%, 89.61%, and 97%, respectively. This chapter, therefore, discusses the pursuit of net zero emission from the viewpoint of land-based renewable energy deployment and carbon-neutral agriculture drivers and tools. The chapter also addresses the issues associated with fossil-based energy sources in agriculture, modern and current trends in agriculture energy supply, carbon neural agriculture drivers, and future agricultural energy supply perspectives, including research and development considerations.
The development and promotion of climate-smart livestock systems (CSLSs) are crucial for ensuring sustainable food security. Climate change poses significant challenges to livestock production systems, which are crucial for food security and support various sociocultural, economic, and environmental aspects of human life. To overcome these challenges and ensure sustainable food security, the development of CSLSs is essential. CSLSs aim to maintain livestock productivity, reduce greenhouse gas (GHG) emissions, and promote locally adapted animal genetic resources. Opportunities exist along the livestock production chain to minimize GHG emissions associated with enteric fermentation, manure management, and feed management. Strategies for CSLS include improving fodder quality, utilizing adapted animal breeds, providing nutritional supplements, and diversifying livestock herds. Diet manipulation, such as using feed resources with high nutritional content and digestibility, can potentially reduce CH4 emissions while increasing livestock productivity. Mixed crop–livestock systems and agroforestry (silvopastoral systems) are key components of CSLS, offering diverse adaptation benefits and multiple roles in livestock systems. The effective utilization of local animal genetic resources and the integration of indigenous knowledge systems with scientific knowledge can enhance adaptation measures and resilience in livestock systems. Addressing animal health issues is also crucial for ensuring CSLS and sustained food security. The development and implementation of CSLS are essential for mitigating the adverse impacts of climate change on livestock production systems and meeting the growing global demand for animal products. Indigenous knowledge is crucial for CSLSs, as it has been a long-standing aspect of livestock production. Women are natural change-agents in livestock production, and equal opportunities for men and women across generations should be promoted through climate-smart livestock technologies. Community-based breeding initiatives, particularly for women, can empower local small-scale farmers and enhance sustainability in livestock production systems. Therefore ignoring indigenous knowledge is counterproductive for the success of CSLSs. The adoption of CSLSs can ensure sustainable food security and contribute to a more resilient and sustainable agriculture sector. The chapter explores the development and promotion of CSLSs for sustainable food security.
Elsevier,

Energy and Climate Change: Our New Future, Volume , 1 January 2025

This chapter supports the UN SDGs by highlighting hydropower's role in providing sustainable, efficient, and versatile renewable energy (SDG 7: Affordable and Clean Energy), while also addressing environmental and social challenges (SDG 13: Climate Action; SDG 15: Life on Land; and SDG 1: No Poverty) associated with large hydropower projects.
Elsevier,

Renewable Energy Technologies, Volume , 1 January 2025

This chapter supports the UN SDGs by promoting sustainable and efficient hydropower technologies that contribute to SDG 7 (Affordable and Clean Energy), SDG 13 (Climate Action), and SDG 9 (Industry, Innovation, and Infrastructure) by advancing renewable energy solutions with minimal environmental impact.
Elsevier,

Microalgae and One Health: Fundamentals, Biocompounds, and Health and Environmental Applications, Volume , 1 January 2025

This chapter explores how microalgae can be used as a sustainable technology for wastewater treatment by removing nutrients, heavy metals, and organic pollutants, supporting SDG 6 through improved water quality and sanitation. It also relates to SDG 13 by highlighting the potential of microalgae for carbon sequestration and emission reduction, contributing to climate mitigation efforts.

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