Babafemi Raphael Babaniyi – författare

Plastics derived from renewable sources, such as biomass or animal-based materials, offer an eco-friendly alternative to traditional petroleum-based plastics. These bioplastics, being biobased and biodegradable, hold great promise in reducing reliance on fossil fuels and mitigating plastic pollution. However, additives play a crucial role in enhancing the properties of bioplastics, improving flexibility, durability, and overall performance. While some additives facilitate biodegradation, others – such as phthalates, bisphenol A (BPA), and brominated compounds – can release harmful substances upon breakdown, posing risks to soil and water quality. This book offers a comprehensive understanding of bioplastic compositions, degradation processes, and the environmental impact of various additives. Through detailed life cycle analyses, it assesses how bioplastic additives compare to conventional plastic additives in terms of sustainability and ecological impact. The book also addresses the challenges of managing bioplastic waste, including recycling limitations and the lack of standardized disposal methods.Key Features:• In- depth analysis of bioplastic compositions, degradation processes, and additive functions• Comparative life cycle assessment of bioplastic and conventional plastic additives• Examination of the environmental impact of bioplastic additives on soil, wildlife, and water quality• Discussion on innovative waste management and recycling strategies for bioplastics• Exploration of policy frameworks, public awareness initiatives, and case studies promoting sustainable bioplastic usageDesigned to address the knowledge gap in bioplastic additive research, this book is an essential resource for researchers, policymakers, industry professionals, and environmental enthusiasts. It bridges the gap between scientific understanding and practical implementation, empowering stakeholders to make informed decisions and contribute to sustainable bioplastic waste management.

Biotechnology of Climate-Smart Agriculture in Food Security and Sustainable Farming reviews the transformative role of science in helping agriculture adapt to the challenges of climate change. This comprehensive book bridges the gap between biotechnology, digital innovation, and sustainability, offering invaluable guidance to researchers, policymakers, and farmers.From harnessing microbial solutions to enhance soil health and deploying precision tools to cultivate resilient crops, to leveraging solar energy for reducing farm emissions, this book covers a wide array of topics. It highlights regional policy frameworks and provides real-world case studies from regions including sub-Saharan Africa. It blends scientific advancements and practical applications, demonstrating how tools like Big Data, Geographic Information Systems (GIS), and remote sensing can revolutionize agricultural decision-making.Features:Advanced Biotechnologies: Explores innovative strategies such as precision farming, gene editing, and microbial applications designed for climate-resilient agriculture.Digital Tools for Agriculture: Showcases the transformative impact of Big Data analytics, GIS, and remote sensing in optimizing farm management and decision-making.Holistic Sustainability Framework: Integrates ecological, social, and economic dimensions, including gender roles, policy development, and financial models, for a comprehensive understanding of climate-smart agriculture.Biotechnology of Climate-Smart Agriculture in Food Security and Sustainable Farming is a vital addition to the library of professionals, academics, and practitioners striving to create a sustainable future for global farming.

This book provides a comprehensive technical analysis of fuel cell technologies, focusing on chemical reactions, material specifications, and performance metrics. It examines practical adaptations through real-world case studies, showcasing successful implementations across various industries, highlighting efficiency gains and emission reductions. It also looks at advances in fuel cell materials and configurations, spotlighting catalysts, electrolytes, and electrodes developed. Features:Describes different types and sources of fuel cells from a sustainability perspective.Includes case studies in real-world applications.Provides comprehensive applications of fuel cells in energy production for a sustainable environment.Discusses environmental and life cycle assessment.Presents emerging innovations in fuel cells production and assessment.This book is aimed at graduate students and researchers in chemical engineering, renewable energy, and clean technologies.

Microorganisms play a vital role in addressing global food security challenges. Leveraging Microbial Technology for Food Security: Solutions for Zero Hunger examines their diverse applications in achieving zero hunger with a focus on practical solutions that transform food production, improve nutrition, and reduce environmental impact. Topics include biofertilization, genetic engineering, waste management, and microbial fermentation for alternative protein sources.Through global case studies, the book demonstrates how microbial innovations have improved food security and provided scalable, sustainable approaches to reducing hunger. It also explores the potential of microorganisms to diversify diets and lessen dependence on traditional agricultural systems.Written for scholars, policymakers, educators, farmers, and students, this book combines scientific analysis with real-world examples. Featuring case studies, data visualizations, and actionable insights, it is a valuable resource for those interested in biotechnology, food systems, and sustainable development.

This technique focuses on top soil regeneration, improving the water cycle, supporting biosequestration, enhancing ecosystem services, increasing biodiversity, strengthening the vitality and health of farm soil, and increasing resilience to climate change and landscape.

This technique focuses on top soil regeneration, improving the water cycle, supporting biosequestration, enhancing ecosystem services, increasing biodiversity, strengthening the vitality and health of farm soil, and increasing resilience to climate change and landscape.

This book originates from a recognition of the urgent necessity to unravel the intricate connections between pesticides and the evolving climate.

This book originates from a recognition of the urgent necessity to unravel the intricate connections between pesticides and the evolving climate. By focusing on environmental dynamics, the book extensively discusses how pesticides and climate change intersect, providing a comprehensive exploration of their combined effects on ecosystems. Each chapter of the book meticulously analyzes various aspects of the interplay. Ranging from the methods of pesticide dispersion to their durability and subsequent ecological consequences, the authors offer a holistic examination of the challenges posed by the convergence of pesticides and climate change. One of the primary aims of this book is to bridge existing knowledge gaps pertaining to the environmental dynamics of pesticides in the context of a changing climate. The comprehensive insights provided within its pages serve as a valuable resource for researchers, policymakers, and practitioners alike. The objective is not only to identify the challenges inherent in this interplay, but also to present practical solutions that contribute to the development of sustainable practices. By addressing critical issues and offering a forward-looking perspective, the book strives to pave the way for informed decision-making and the implementation of effective strategies to mitigate the environmental challenges arising from the interplay of pesticides and climate change.

The diversity of wetland bio resources is crucial for addressing global challenges they face. This compendium addresses conservation, policy, and technological strategies to safeguard wetlands.

The term white pollution describes the various types of large number of plastics products in the ecosystem worldwide. Because plastics material and its by-products are difficult to degrade, they remained constantly present in the soils, water bodies and in the atmosphere. Persistent plastic materials undergo fragmentation and dispersion through currents and wind, which also leads to their limited degradation. As a result, marine, soils and atmospheric environments worldwide contain an abundance of plastic particles. In contrast to the effects of ingestion or entanglement observed in larger organisms, the interaction between microorganisms and plastics is distinctly different. Plastics serve as habitats and swiftly attract dense biofilms composed microorganisms on their surfaces, known as the "Plastisphere" This Plastisphere represents a portion of the global ecosystem characterized by floating plastic debris and the associated microbes and other organisms.Plastisphere may deplete phosphorus, stripping it away from other organisms. Additionally, the plastisphere could act as a reservoir for the transmission of human diseases since fish and shellfish consume minute plastic fragments harboring Vibrio and cholera-like bacteria, leading to foodborne illnesses. Due to the long persistence of plastic, microbes within the plastisphere can be transported over significant distances, presenting a potential source of invasive species. If these microbes are transferred across various ecosystems within the ocean, air, and soil, they could impact native microbial populations and the larger organisms that depend on them. Additionally, the plastisphere has the potential to modify plastic debris, which can alter its impact on an ecosystem, making it either more or less harmful. As a society, we acknowledge that plastic marine debris poses a predicament. However, we lack solutions to even the most basic inquiries, such as the quantity and nature of plastic present in the ocean, soils, air and their origin. The microorganisms that constitute the plastisphere may influence the destiny and repercussions of plastic within marine ecosystems. Microscopic and molecular sequence data demonstrate that the plastisphere is composed of primary producers, heterotrophs, symbionts, and predators. The interactions between phytoplankton and bacteria are crucial for facilitating the ecological cycles of the Earth and shaping the structure of food webs in the oceans. This interconnection between autotrophic organisms and other microorganisms is also evident within the plastisphere.This book publication going by the available facts and global trends of plastics production, therefore addresses the new emerging occurrence, distribution and degradation of marine white plastisphere, plastisphere in soil plant uptake and the role in food security and the sources, prevalence and effects of the atmospheric plastisphere to humans and other organisms.

This book advocates for an integrated reclamation approach that combines microbial methods with physical and chemical strategies for ecosystem restoration. It presents successful large-scale projects that exemplify the effectiveness of these combined techniques while analysing the economic and environmental advantages of microbial technologies through detailed cost-benefit assessments. Addressing global issues such as climate change, the text elaborates on the role of microbes in carbon cycling and sequestration. It emphasizes how microbial biomass can enhance soil structure and water retention, linking this potential to broader climate change mitigation strategies. Furthermore, innovative areas such as microbial nanotechnology are explored, including how nanomaterials can boost microbial efficiency in bioremediation efforts. The discussion extends to microbial electrochemical systems like microbial fuel cells as novel reclamation solutions in challenging environments. Advancements in microbial metagenomics are also highlighted, particularly the use of gene-editing technologies like CRISPR to optimize microbial functions for remediation purposes. The potential of big data analytics and predictive modelling in assessing microbial communities and gauging reclamation success is discussed. Throughout the narrative, the importance of microbial inoculants and seed treatments is emphasized for improving plant establishment in degraded soils. The role of microbial biocontrol agents in managing plant pathogens is also noted.Additionally, the synergy between indigenous microorganisms and traditional ecological knowledge is presented as a pathway to integrating local practices with modern technologies for sustainable reclamation. While acknowledging the technical, environmental, and regulatory challenges faced in implementing microbial reclamation strategies, this book offers a forward-looking perspective that emphasizes ongoing research and technological innovations poised to address these barriers. Finally, it examines how microbes contribute to erosion control and land stabilization, presenting microbial crusts as natural solutions for soil stabilization in degraded landscapes.