Synthesis Lectures on Chemical Engineering and Biochemical Engineering – serie

This book offers new engineers and engineering students appropriate and effective strategies to find data, statistics, and research to support decision making. The authors describe the utility of solid reputable sources and help readers go beyond reliance on the quick Internet search, a habit which is often both inadequate to complex tasks and a source of criticism from employers. Some sources are free; others are available through libraries, or by purchase or subscription. This title can be used as a guide in concert with the advice of professors and colleagues, and potentially as a textbook. The examples are primarily from chemical and agricultural engineering, but the strategies could be adapted to other disciplines. An array of sources are shown, ranging from scholarly or professional societies, data sources, and books, to handbooks and journal sources, and less commonly used credible government documents and Web resources, including information from the USDA, the EPA and the DOE. Two case studies show research processes and the application of the underlying strategies and some of the tools.

A bulky document on cement science and manufacturing technology is difficult for a college junior to easily understand. Thus, it is better to write a short and precise book that contains only the necessary basic content.This introductory book is designed as a short and concise resource for undergraduate university students studying chemical science (chemistry and chemical engineering), material science, geology, and construction technology. It emphasizes different types of cement, admixtures, and how to analyze the chemical compositions of cement in the laboratory. Technical procedures of cement analysis are very important for determining and comparing chemical compositions. This book describes the detailed procedures for different test parameters.

This book delves into the realm of Chemical Reaction Engineering (CRE) by showcasing the practical application of multiple-reaction stoichiometry. The authors critically assess various approaches commonly taught in undergraduate CRE courses to establish the relationships between changes in chemical species. In doing so, they propose an innovative conceptual alternative that is specifically tailored for undergraduate lectures. The book carefully selects composition measures that effectively harness the power of stoichiometric relationships in elementary reacting systems and models, which are typically covered in these courses. Going beyond the basics, it also offers a profound discussion on the value of chemical stoichiometry for tackling more intricate reaction systems and detailed models. Moreover, the book presents a simplified procedure that minimizes the reliance on complex linear algebra techniques, making the book accessible to a wider range of readers.

This book delves into the realm of Chemical Reaction Engineering (CRE) by showcasing the practical application of multiple-reaction stoichiometry. The authors critically assess various approaches commonly taught in undergraduate CRE courses to establish the relationships between changes in chemical species. In doing so, they propose an innovative conceptual alternative that is specifically tailored for undergraduate lectures. The book carefully selects composition measures that effectively harness the power of stoichiometric relationships in elementary reacting systems and models, which are typically covered in these courses. Going beyond the basics, it also offers a profound discussion on the value of chemical stoichiometry for tackling more intricate reaction systems and detailed models. Moreover, the book presents a simplified procedure that minimizes the reliance on complex linear algebra techniques, making the book accessible to a wider range of readers.

The book tells the story of the coal gasification technology from its early days 230 years ago to the present. Before the end of WWII, gasification had been extensively used to produce both fuel gas and gaseous feedstock from coal. But things have changed when natural gas became readily available, and coal gasification received little attention, especially in recent years when the trend is to move away from fossil energy. Compared to conventional coal combustion, gasification-based processes for power production typically result in much lower emissions of pollutants. So, coal gasification technology became relevant again during the transition of energy production to cleaner sources, in an effort to fight climate change. Taking another look at gasification technology to better understand its potential benefits including carbon capture and management and use the process, seems to make sense during the challenging time of the transition of energy production. Professionalsand policy makers in the energy field will benefit from this writing.

The book tells the story of the coal gasification technology from its early days 230 years ago to the present. Before the end of WWII, gasification had been extensively used to produce both fuel gas and gaseous feedstock from coal. But things have changed when natural gas became readily available, and coal gasification received little attention, especially in recent years when the trend is to move away from fossil energy. Compared to conventional coal combustion, gasification-based processes for power production typically result in much lower emissions of pollutants. So, coal gasification technology became relevant again during the transition of energy production to cleaner sources, in an effort to fight climate change. Taking another look at gasification technology to better understand its potential benefits including carbon capture and management and use the process, seems to make sense during the challenging time of the transition of energy production. Professionalsand policy makers in the energy field will benefit from this writing.

Ozone is a powerful disinfectant with many applications. This book describes the unique advantages of using ozone technology for food decontamination. Food contamination, especially microbial contamination of fresh produce, is a serious concern in many parts of the world. Ozone decontamination can contribute to food safety and quality retention while avoiding the concerns associated with the use of pesticides.The book begins with an introduction about ozone properties and ozone technology followed by a detailed description of applications of ozone for preservation of grain, fruits, and vegetables, as well as meat and seafood. Possible effects on product quality and shelf life are discussed, and potential research directions for the future are also suggested.

Improper disposal of plastics increases micro-plastic discharge and waste to the environment. It causes growing global concern about the environmental and public health impacts of related byproducts. This book presents a safe process based on application of microbial cultures from different sources for the degradation of plastic waste to harmless products.The book begins by introducing the problem of plastic waste and its environmental impact, then moves on to describing microbial resources and the mechanism of biodegradation before presenting examples of biodegradation processes. Challenges of the microbial and enzyme based technologies for plastic biodegradation and potential research directions are also discussed.

The study of the effects of ultrasound waves on a chemical reaction is known as sonochemistry. Ultrasound radiation (between 20 kHz and 2 MHz) is used to drive chemical and physical processes in solution. When ultrasound waves pass through liquid, they generate tiny bubbles that expand and then collapse quickly. This process releases energy, which can speed up the chemical reactions. Sonochemistry is considered a sustainable technology because it often utilizes less energy, requires fewer toxic chemicals, and generates less waste compared to traditional chemical processes.Ultrasound waves are utilized in various processes including synthesis, crystallization, and purifications and find applications in various sectors like pharmaceuticals, material sciences, agriculture, food processing, and environment science.This book is focused on applications of sonochemistry. It begins by explaining the basics of the technology and moves on to describing applications in the fields of chemistry, chemical engineering, and environmental engineering, and discussed applications currently being developed and future outlook.

The study of the effects of ultrasound waves on a chemical reaction is known as sonochemistry. Ultrasound radiation (between 20 kHz and 2 MHz) is used to drive chemical and physical processes in solution. When ultrasound waves pass through liquid, they generate tiny bubbles that expand and then collapse quickly. This process releases energy, which can speed up the chemical reactions. Sonochemistry is considered a sustainable technology because it often utilizes less energy, requires fewer toxic chemicals, and generates less waste compared to traditional chemical processes.Ultrasound waves are utilized in various processes including synthesis, crystallization, and purifications and find applications in various sectors like pharmaceuticals, material sciences, agriculture, food processing, and environment science.This book is focused on applications of sonochemistry. It begins by explaining the basics of the technology and moves on to describing applications in the fields of chemistry, chemical engineering, and environmental engineering, and discussed applications currently being developed and future outlook.

Digital transformation is an approach to improve industrial processes by employing digital technologies. This book describes the steps involved in planning and implementing a digital transformation process of chemical manufacturing organizations. The book emphasizes that implementation of digital solutions requires a combination of information technology and data science and efficient workflows, and often, changes in organizational cultures. Practical guidelines and relevant examples and case studies help clarify the digital transformation approach and in so doing make this book useful.

Digital transformation is an approach to improve industrial processes by employing digital technologies. This book describes the steps involved in planning and implementing a digital transformation process of chemical manufacturing organizations. The book emphasizes that implementation of digital solutions requires a combination of information technology and data science and efficient workflows, and often, changes in organizational cultures. Practical guidelines and relevant examples and case studies help clarify the digital transformation approach and in so doing make this book useful.

This book introduces engineering students and practitioners to biopolymers, which are polymers derived partially or entirely from biobased (renewable) raw materials, and/or are biodegradable. Biopolymers have unique properties such as biocompatibility, making them valuable in diverse industries. Both natural and synthetic biopolymers have been widely used across various fields, including for biomedical, food, and environmental applications.The book explains the fundamentals of biopolymer engineering and how biosynthetic and biochemical pathways enable the design and manufacturing of biopolymers. It then describes their properties and applications in the food industry, biomedicine and environmental engineering. The book can serve as a textbook for engineering students, including those in bioengineering, materials science and engineering, and biochemical engineering, and as a reference for professionals who are looking to refresh their knowledge in the field.

The petroleum refining industry stands at a critical juncture in its evolution. After more than a century of technological advancement, the sector faces unprecedented pressure to reimagine its operations in response to climate change imperatives, market transformations, and societal expectations. This transformation requires a shift in how fuels and chemicals are produced.At the same time, the revolution in artificial intelligence through the development of Large Language Models (LLMs) that are trained on vast amounts of data, allows remarkable capabilities in knowledge integration and problem-solving across diverse domains. The emergence of sophisticated prompt engineering has transformed these models from research artifacts into practical tools for addressing complex industrial challenges.This book explores the convergence of these two transformative forces: the imperative to reimagine industrial hydrocarbon processing and the emergence of AI systems capable of supporting that reimagination. It examines how LLMs, when properly directed, can accelerate the transition toward more sustainable refining technologies by enabling more efficient knowledge synthesis, system design optimization, and innovation across disciplinary boundaries.