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Towards a Climate-Resilient World: The Role of Renewable Energy, Innovation, and High-Tech

Abstract

The escalating threats posed by climate change to ecosystems, biodiversity, and human society underscore the urgent need for a decisive shift away from dependence on fossil fuels. This review underlines the centrale role of renewable energy, innovation, and high-tech in building a climate-resilient world and achieving sustainable development goals. Renewable energy emerges as an alternative that not only supports carbon-neutral economic activities but also helps mitigate climate change. Solar energy, captured through PV cells and CSP systems, has gained significant attention, leading to improvements in both efficiency and scalability. Advances in wind turbine design for both small- and large-scale applications, along with improvements in materials, have significantly enhanced the capture of kinetic energy at a relatively low cost, making wind power an increasingly competitive source of clean energy. Advances in hydropower turbine, dam, and pump design, particularly for large-scale applications, have positioned hydropower as a strategic tool for stabilizing intermittency in renewable energy, specifically through hydroenergy storage. Advances in energy storage, along with their integration into electrical grids, have demonstrated the potential to address the intermittency of renewable energy, thereby paving the way for more stable energy systems and reduced dependence on conventional energy sources. Overall, renewable energy, innovation, and high-tech are bringing society closer to a more climate-resilient world where clean energy plays a central role in mitigating climate change, adapting to its impacts, and achieving climate neutrality.

Table of Contents: Transitioning to Climate Action

The Adoption and Scaling of Stress-Tolerant Rice Varieties: A Sustainable Climate Adaptation Strategy for Smallholders

SNSwati NayakSwati Nayak
NTNeeraj Kumar TyagiNeeraj Kumar Tyagi
JNJami NaveenJami Naveen
SKSuryakanta KhandaiSuryakanta Khandai
SHS. K. Mosharaf HossainS. K. Mosharaf Hossain
ASAshish Kumar SrivastavaAshish Kumar Srivastava
VKVirendar KumarVirendar Kumar
SSSudhanshu SinghSudhanshu Singh

Best Agronomic Practices to Mitigate the Transition of Climate Action

AAAnjana J. AtapattuAnjana J. Atapattu
SUShashi S. UdumannShashi S. Udumann
NDNuwandhya S. DissanayakaNuwandhya S. Dissanayaka
TNTharindu D. NuwarapakshaTharindu D. Nuwarapaksha
ADAruna S. B. DissanayakeAruna S. B. Dissanayake
ATAsanka TennakoonAsanka Tennakoon
DRDissanayake M. D. RasikaDissanayake M. D. Rasika
DDD. H. B. R. DassanayakeD. H. B. R. Dassanayake
JEJayampathi EkanayakeJayampathi Ekanayake
SKS. M. C. B. KaralliyaddaS. M. C. B. Karalliyadda
NBN. P. S. N. BandaraN. P. S. N. Bandara
JSJ. K. Sajeep SankalpaJ. K. Sajeep Sankalpa
SVS. VinujanS. Vinujan
AAAmila C. Gama ArachchigeAmila C. Gama Arachchige
DKDushan P. KumarathungeDushan P. Kumarathunge

Climate Change Perception and Adaptation Behaviours Among Root and Tuber Crop Farmers: Towards Improving Climate Action in Agriculture

ODOral O. DaleyOral O. Daley
AJAlbertha Joseph-AlexanderAlbertha Joseph-Alexander
WIWendy-Ann P. IsaacWendy-Ann P. Isaac
RRRonald R. RoopnarineRonald R. Roopnarine

Community-Oriented Climate Action Plan in a Mid-Sized Shoreline Municipality: A Canadian Case Study

NFNegin FiczkowskiNegin Ficzkowski
GKGail KrantzbergGail Krantzberg
AGArash GolshanArash Golshan
YEYagiz ErcinYagiz Ercin
UBUmais Abdull BaqiUmais Abdull Baqi
SBSufiyan BharuchaSufiyan Bharucha
SMSadiyah ManidharSadiyah Manidhar
MOMateo OrrantiaMateo Orrantia

Understanding Climate Action Perceptions in the Caribbean: Harnessing Machine Learning Insights

LALetetia M. AddisonLetetia M. Addison
TTTrevon TewariTrevon Tewari
SGSabina GooljarSabina Gooljar
PHPatrick HoseinPatrick Hosein