Smart Anticorrosion Coatings From Biomass Extracts

The development of smart anticorrosion coatings from biomass extracts is a promising approach towards eco-friendly and sustainable corrosion protection. Biomass extracts, such as plant extracts, lignin, cellulose, hemicellulose, and chitosan, offer renewable resources that can be used to create natural and biodegradable coatings. The use of biomass extracts for smart coatings can lead to the creation of bio-based materials with desirable properties, such as self-healing coatings, multi-functional coatings, and coatings with barrier properties, adhesion, durability, weather resistance, and UV protection. The mechanical, chemical, and electrochemical properties of these coatings can be optimized through the use of natural extracts and bioactive compounds. One of the advantages of smart anticorrosion coatings from biomass extracts is their anti-fouling, anti-bacterial, and anti-microbial properties, which make them ideal for use in harsh environments. The nanostructured materials used in these coatings also allow for surface modification and functionalization, resulting in coatings with excellent corrosion resistance. The production of smart coatings from biomass extracts can be achieved using various deposition techniques, such as sol-gel process, layer-by-layer deposition, electrospinning, dip coating, spin coating, spray coating, and electrodeposition. Computational modeling can also be used to predict the properties of the coatings. In addition to providing excellent corrosion protection, the use of biomass extracts for smart coatings also promotes waste valorization and circular economy. These coatings are synthesized through green synthesis methods and can be used for environmental remediation purposes. Overall, smart anticorrosion coatings from biomass extracts represent a promising direction towards sustainable chemistry and environmentally friendly corrosion protection. Research efforts in this area, led by experts like Sarah Bill Ulaeto, have the potential to revolutionize the way we approach corrosion protection and contribute to a more sustainable future.

Smart Anticorrosive Materials: Trends and Opportunities covers new developments in nanoscale coatings and their current applications. The book addresses fundamental characteristics, synthesis, inhibition mechanisms and applications of green nanomaterials for educational (academic) as well as industrial purposes and provides a chronological overview of the growth of the field. The book concludes with discussions about commercialization, economics and environmental considerations. This will be an indispensable reference for scholars, chemical engineers, chemists and materials scientists working in R&D and academia who want to understand corrosion systems and modern advancements on smart coatings. Presents current research and the latest developments in corrosion protection and future opportunities, along with anticorrosive effects of nanomaterials and nanocomposites Focuses on advanced nanomaterials and nanocomposites coatings for industry-oriented practices, including current challenges during manufacturing Includes websites of interest and information the about latest research

Corrosion causes permanent damage to metal surfaces and is a major global challenge, spanning numerous fields including industrial sectors, construction materials, and surface treatments for metallic cultural heritage preservation. Nanomaterials and nanocomposites can be used as effective alternative corrosion inhibitors in the place of traditional environmentally toxic substances. This book provides readers with an overview of the properties and applications of nanomaterials and nanocomposites as corrosion inhibitors. Chapters first cover the basics of nanomaterials and the features that make them useful candidates, before highlighting recent advances from across the field for industry-oriented challenges. With a focus on cutting-edge research, this book is a valuable resource for chemists, chemical engineers, material scientists and environmental chemists in both academia and industry who want to learn more about corrosion inhibitors and mechanisms.

Smart Protective Coatings for Corrosion Control Overview of the latest research in advanced coatings for anticorrosion and the development of optimized surfaces with high anticorrosion ability Smart Protective Coatings for Corrosion Control introduces the newest research developments in self-healing coatings, self-reporting coatings, and superhydrophobic coatings, reviewing corrosion processes and strategies, smart coatings for corrosion protection, techniques for synthesizing and applying smart coatings, different kinds of self-healing and self-reporting coatings activated by different environmental stimuli, and current and future trends of protective coatings for automotive, aerospace, marine, nuclear, oil/gas, and military applications. This book also discusses new ideas in the field, such as the combination of self-healing and self-reporting properties, new techniques to study localized microscale electrochemical corrosion behavior, as well as atmospheric corrosion monitor technique to study the real-time protection behavior of coatings in different environments. The processes of coating degradation and metal corrosion are discussed in detail so that non-experts can gain a basic understanding of the corrosion protection techniques. Written by two highly qualified academics with significant research experience in the field, Smart Protective Coatings for Corrosion Control includes information on: Coating preparation, filler preparation, surface characterization, macroscopic and microscopic electrochemical properties, and self-healing performance of self-healing coating systems under different environmental stimuli Photothermal conversion species such as graphene oxide, titanium nitride, and Fe3O4 Different types of corrosion indicators, such as phenolphthalein, sulfosalicylic acid-modified carbon dots, and phenanthroline High-mobility polymer networks that endow a shape memory effect and allow coatings to recover their original shape and barrier properties Solutions to three corrosion conditions—room temperature immersion, alternating wet-dry, and outdoor atmospheric exposure conditions Presenting the latest research in the field, Smart Protective Coatings for Corrosion Control is a practical and highly valuable reference on the subject for scientists, researchers, and students in diverse programs of study.

Corrosion Science and Engineering is now an integral part of research throughout the world. Researchers are actively looking for an alternative eco-friendly way of developing non-toxic corrosion inhibitors from natural sources. This book discusses all the recent advancements in the corrosion field with an emphasis on natural sources which is the demand of the era to replace the commercially available toxic corrosion inhibitors.

This book covers all the recent advancements and technologies developed for encapsulated corrosion inhibitors-based coatings by using eco-benign and sustainable encapsulated smart coatings based on self-healing functionality. It includes overview of properties and applicability of encapsulated inhibitors, methodologies to detect corrosion, and recent developments made in the field of corrosion science to study the inhibition potential of encapsulated corrosion inhibitors for eco-benign smart coatings in several corrosive systems. Features: Covers encapsulation of the corrosion inhibitor which explores the self-healing mechanism of the smart coatings. Includes encapsulated corrosion inhibitor fabrication, synthesis, modeling, functionalization, classification, characteristics, and so forth. Reviews effectiveness and significant constraints of scale-up engineering. Discusses the fundamental characteristics of industrial-scale application research for encapsulated corrosion inhibitors. Explores entire aspects of encapsulated corrosion inhibitors-based sustainable smart coatings in one place. This book is aimed at researchers and graduate students of corrosion engineering, surface engineering, and chemistry engineering.

Corrosion Science and Engineering is now an integral part of research throughout the world. Researchers are actively looking for an alternative eco-friendly way of developing non-toxic corrosion inhibitors from natural sources. This book discusses all the recent advancements in the corrosion field with an emphasis on natural sources which is the demand of the era to replace the commercially available toxic corrosion inhibitors.

Nanomaterials and nanocomposite materials have been developed as corrosion inhibitors and are the most noble and effective alternatives to traditional organic corrosion inhibitors. Nanomaterials provide reasonably high anticorrosive activity in both aqueous and solution phases. A unified approach to this task is lacking, however, which highlights the role of all disciplines involved in the creation and use of corrosion protection coatings for metals. Fouling is the process of accumulating unwanted material that is mostly non-living and comprised of detritus and organic or inorganic compounds, or organisms, such as tiny viruses up to giant kelps. This book covers both the processes of biofouling and anti(bio)fouling, and the devices that stop the biofouling process. This book provides a missing synopsis by providing an understanding of the anticorrosive and anti-biofouling effects of nanomaterials and nanocomposites under different environments. It features an up-to-date picture of the quality and chemistry of a substrate surface, its proper preparation by conversion treatment, the function of resins and anticorrosive pigments in paints, and novel concepts for corrosion protection.

Over the past 25 years coatings technologies have been influenced by the need to lower volatile organic contents (VOC) in order to comply with stricter environmental regulations as well as to reduce the use of costly petroleum based solvents. During this time the use of waterborne coatings in the architectural, industrial maintenance and original equipment manufacturing (OEM) sectors has continued to grow replacing solvent based coatings while meeting the ever decreasing VOC targets. In addition to waterborne coatings, other alternative technologies in the industrial and OEM sectors include powder coatings, uv-curable coatings and high solids coatings have had significant growth. Traditionally these coatings had the primary functions of protecting and decorating substrates. More recently, there has been growth in Research and Development and commercial product generation of coatings which have novel functions and sense and interact with their environment in addition to having the traditional protection and decoration functions. These coatings are often referred to as Smart Coatings. These types of coatings generally provide significant added value. Smart Coatings can be achieved in many ways such as by addition of additives and strategically designing polymer structures and coatings morphologies.