Household Chemistry
"Household Chemistry for the Non-Chemical" offers a fascinating glimpse into the world of late 19th-century home science. Written by Alfred J. Shilton, this book provides a wealth of information on the chemical principles underlying everyday household tasks. From simple cleaning solutions to more complex recipes and experiments, Shilton demystifies the science behind common practices. Originally published in 1882, this vintage guide presents practical advice on topics such as food preparation, stain removal, and the creation of various household products. While some of the methods and materials may reflect the era in which it was written, the book's clear explanations and engaging tone make it a valuable resource for anyone interested in the history of science, domestic arts, or simply understanding the chemistry that surrounds us.This work has been selected by scholars as being culturally important, and is part of the knowledge base of civilization as we know it. This work was reproduced from the original artifact, and remains as true to the original work as possible. Therefore, you will see the original copyright references, library stamps (as most of these works have been housed in our most important libraries around the world), and other notations in the work.This work is in the public domain in the United States of America, and possibly other nations. Within the United States, you may freely copy and distribute this work, as no entity (individual or corporate) has a copyright on the body of the work.As a reproduction of a historical artifact, this work may contain missing or blurred pages, poor pictures, errant marks, etc. Scholars believe, and we concur, that this work is important enough to be preserved, reproduced, and made generally available to the public. We appreciate your support of the preservation process, and thank you for being an important part of keeping this knowledge alive and relevant.
The Electrolytic Dissociation Theory With Some of its Applications
"The Electrolytic Dissociation Theory With Some of its Applications" presents a detailed examination of Svante Arrhenius's groundbreaking theory of electrolytic dissociation, a cornerstone of modern physical chemistry. Originally published in 1907, this work by Henry P. Talbot and Arthur A. Blanchard provides a comprehensive overview of the theory's principles and its diverse applications across various scientific disciplines. The book explores the behavior of electrolytes in solution, focusing on the dissociation of molecules into ions and the implications for understanding chemical reactions, conductivity, and other phenomena. It delves into the experimental evidence supporting the theory and discusses its significance in advancing the understanding of chemical processes. This historical text offers valuable insights into the development of physical chemistry and remains relevant for students, researchers, and anyone interested in the history of science and the foundations of modern chemistry.This work has been selected by scholars as being culturally important, and is part of the knowledge base of civilization as we know it. This work was reproduced from the original artifact, and remains as true to the original work as possible. Therefore, you will see the original copyright references, library stamps (as most of these works have been housed in our most important libraries around the world), and other notations in the work.This work is in the public domain in the United States of America, and possibly other nations. Within the United States, you may freely copy and distribute this work, as no entity (individual or corporate) has a copyright on the body of the work.As a reproduction of a historical artifact, this work may contain missing or blurred pages, poor pictures, errant marks, etc. Scholars believe, and we concur, that this work is important enough to be preserved, reproduced, and made generally available to the public. We appreciate your support of the preservation process, and thank you for being an important part of keeping this knowledge alive and relevant.
The Experimental Study of Gases
"The Experimental Study of Gases" by Morris William Travers provides a detailed account of the experimental methods used in the study of gases at the turn of the 20th century. This comprehensive work is invaluable for students and researchers interested in the history of chemistry and physics, as well as the development of laboratory techniques. Travers meticulously describes the apparatus, procedures, and challenges associated with gas research, offering insights into the pioneering efforts to understand the properties and behavior of gases. The book covers a range of topics, including gas preparation, purification, measurement, and analysis. It serves as a practical guide for conducting experiments and a historical record of the evolution of experimental science. With its clear and precise explanations, "The Experimental Study of Gases" remains a relevant resource for anyone seeking a deeper understanding of the foundations of modern chemistry and physics.This work has been selected by scholars as being culturally important, and is part of the knowledge base of civilization as we know it. This work was reproduced from the original artifact, and remains as true to the original work as possible. Therefore, you will see the original copyright references, library stamps (as most of these works have been housed in our most important libraries around the world), and other notations in the work.This work is in the public domain in the United States of America, and possibly other nations. Within the United States, you may freely copy and distribute this work, as no entity (individual or corporate) has a copyright on the body of the work.As a reproduction of a historical artifact, this work may contain missing or blurred pages, poor pictures, errant marks, etc. Scholars believe, and we concur, that this work is important enough to be preserved, reproduced, and made generally available to the public. We appreciate your support of the preservation process, and thank you for being an important part of keeping this knowledge alive and relevant.
Biodiesel Production from Used Vegetable Oil and Raw Vegetable Oil. Research and Findings
Research Paper (postgraduate) from the year 2024 in the subject Engineering - Chemical Engineering, grade: A, course: Chemical Technology, language: English, abstract: Now biodiesel has become a long-term viable option while being a gentler-on-the-planet on the planet alternative to conventional fossil fuels, offering lessened release of greenhouse gases and biodegradability. The focus of this research is on the production of biodiesel from both used vegetable oil (UVO) and raw vegetable oils through transesterification, a process that converts triglycerides into fructooligosaccharide methyl esters using alcohol (typically methanol) and a catalyst. The research compares the efficiency, yield, and quality used to make biodiesel from used cooking oil and fresh vegetable oils, highlighting the economic and environmental benefits of utilizing waste oils. Key parameters such as oil reacting temperature, composition, free fatty acid content, catalyst type, and alcohol-to-oil ratio were analyzed to optimize biodiesel production. The results demonstrate that biodiesel derived from used vegetable oil presents a viable alternative with comparable fuel properties to that produced from raw vegetable oils while promoting waste recycling and cost-effectiveness. The findings of this research reinforce the possibilities of biodiesel as an alternative fuel and support its role in sustainable energy development.
Elemental Analysis
Elemental Analysis is an excellent guide introducing cutting-edge methods for the qualitative and quantitative analysis of elements. Each chapter gives an overview of a certain technique, such as AAS, AFS, ICP-OES, MIP-OES, ICP-MS and XRF. Readers will benefit from a combination of theoretical basics, operational principles of instruments and their applications. New: extended section on supply of liquid samples for AAS, ICP-OES and ICP-MS.
Trajectory Planning and Object Recognition for Robot Sensing and Control
An increasing number of robots are entering our lives and industrial production. Trajectory planning and object recognition have become key research areas, with tasks such as 3D grasping, flexible operation, and navigation depending on machine vision and multi-sensor fusion. Recent advances in such technologies have driven novel theories, mechanisms, and processing technologies for intelligent robots and autonomous unmanned systems. This Special Issue has collected papers discussing new sensor-based robot control theories and engineering applications, trajectory planning and control, environment perception and target detection, multi-sensor fusion and calibration, and autonomous unmanned systems. The research focuses on UAVs, human posture, underwater bionic aircraft, multi-sensor fusion, etc. The development of artificial intelligence algorithms provides a viable solution for the trajectory planning and target recognition of robot sensing and control, and it shows immense potential in dealing with complex environments and dynamic constraints.
Active Flow Control
Active flow control (AFC) has emerged as a vibrant research field with significant potential to address a broad spectrum of academic and industrial challenges. Recent developments in actuation technologies and computational/experimental methods, together with the resurgence of machine learning, have positioned AFC to achieve enhanced effectiveness, efficiency, robustness, and intelligence. The following reprint compiles fundamental studies and practical applications of AFC, encompassing the design and development of novel actuators, innovative control strategies, and advances in theoretical, computational, and experimental approaches, alongside explorations of related interdisciplinary topics.
Molecular and Materials Design
The concept of the potential energy landscape (PEL) plays a pivotal role in understanding microscopic patterns and meticulous engineering of novel chemical structures. This succinct book examines the historical evolution of the PEL concept and its diverse applications in materials design. The account for the available theoretical algorithms is accompanied by a critical discussion, highlighting relevant modern research endeavors, such as fine-tuning electrolyte structural and transport properties, improving the capacities and decreasing the costs of gas scavengers, and producing more sustainable designs of energy-storage devices. Specific applications of the PEL for systematizing molecular design endeavors are discussed. The monograph represents an indispensable introduction to modern in-silico materials design and molecular design for graduate students and experimentalists performing across chemistry and physics.
New Control Schemes for Actuators
These control schemes represent a diverse range of approaches aimed at enhancing the efficiency, adaptability and reliability of actuators in different applications. The choice of a specific control scheme depends on the characteristics of the system, the desired performance of the actuator and the environmental conditions in which the actuator operates. This Special Issue is a collection of 12 excellent research papers published in Actuators, showcasing and discussing new advances in control theories and mechatronic systems for Actuators.
Liposomes as Pharmaceutical and Nutraceutical Delivery Systems
Liposomes provide an excellent way to enhance nutrient bioavailability, drug uptake and absorption, vaccine delivery and the delivery of therapeutic genes. The ability of liposomes to fuse with the plasma membranes of barrier and target cells increases the diffusability of hydrophilic and hydrophobic molecules into cells and throughout the body. In addition to the increased diffusibility of liposomes, decorating liposomes with target ligands presents a promise to more selectively deliver drugs, nutrients and therapeutic genes with enhanced bioavailability and uptake into target cells. This book presents the use of liposomes and gives examples of the wide range of uses of liposomes in medicine, health and biotechnology.
Estimation of Caffeine Present in Various Soft Drinks
Research Paper (postgraduate) from the year 2024 in the subject Engineering - Chemical Engineering, grade: A, course: Chemical Technology, language: English, abstract: This study investigates the caffeine content in fourteen different local carbonated and energy drink brands, utilizing UV spectrophotometry for rapid and accurate caffeine quantification. The results reveal a significant variation in caffeine concentrations across the samples, with the energy drink XL(I) exhibiting the highest concentration at 520 繕g/ml, while the Tender coconut drink contained the lowest at 52.37 繕g/ml. Additionally, the findings indicate that imported soft drinks generally contain higher caffeine levels than their domestic counterparts. These measurements are compared to the Recommended Daily Intake (RDI) for caffeine, providing insights into the potential consumption patterns of caffeine in soft drink products.
Development of new analytical methods for toxicants used in textile
Newly regulated toxicants like flame retardants, phthalates, biocides (MIT, CIT, OIT, Triclosan), ortho-phenylphenols, DMFu, and azo dyes lack certified testing methods, making detection in consumer products difficult. To address this, sensitive and rapid analytical techniques were developed for textiles, foam, leather, and plastics. Samples were extracted using an organic solvent at 60簞C for 60 min with sonication, followed by centrifugation and filtration. Toxicants were analyzed using GC/MS with a DB-5MS column and helium gas or UFLC. Extraction conditions were optimized, achieving good linearity (r簡 >= 0.9995) and recovery rates of 100 簣 15%. LOQs ranged from 0.02 - 0.2 mg L⁻繒, with detected levels between 5.18 - 1798.14 mg L⁻繒. These methods effectively identified controlled substances across various matrices.
Hybrid Photo Catalysts for Degradation of Organic Pollutants
We introduced "hybrid photocatalysts" in this work, which are chitosan metal complex support metal oxide semiconductors. Metal oxides are utilized to generate electron-hole pairs, and chitosan metal complex is employed as a support material to decrease electron-hole pair recombination and transfer to the surface. By the synergetic effect the energy gap of the material slightly shifts towards visible region. We discussed the fabrication and characterization of metal oxide semiconductors. We addressed co-precipitation method and hydrothermal method during the synthesis process because cerium oxide nanoparticles are prepared by co-precipitation method and iron oxide nanoparticles (IONP) are prepared by hydrothermal method. We discussed about construction, working principle, applications, and advantages of the X-Ray Diffraction (XRD) technique, Scanning Electron Microscope (SEM), Ultra Violet-Visible (UV-Vis) spectroscopy, Fourier Transform Infrared (FTIR) spectroscopy, and Raman spectroscopy in the characterization approaches.
Biologically Active Thiazole-Linked Heterocycles
In this book, a novel series of biologically active heterocyclic aminothiazole hybrids was successfully synthesized and thoroughly characterized using various spectroscopic techniques. These compounds were designed with the aim of enhancing their potential pharmacological properties by integrating specific functional moieties into the aminothiazole core structure. The strategic incorporation of pharmacophores within the hybrid molecules was inspired by the structural features commonly found in existing bioactive molecules, thereby increasing the likelihood of producing compounds with significant biological relevance.
Hidden Electron Lone Pairs in Zintl Ion Clusters
A selected sample of Zintl ion clusters was analyzed using skeletal numbers. From each cluster, a cluster number (K) was obtained.This cluster number gives us the number of skeletal bonds that bind the skeletal elements in the cluster together. Another newly discovered useful parameter given by LP=EP/2-K where LP=lone pair electrons, and K= cluster number was used to determine the number of lone electron pairs present in a chemical cluster. It was found that a wide range of Zintl clusters do possess electron lone pairs. A tentative distribution of the electron lone pairs is given for a selected number of clusters.This book provides a wide range of Zintl clusters examples for illustrations.
GC-MS method for regulated Chlorinated Organic Carriers (COCs)Analysis
This study introduces a novel method for the simultaneous identification and quantification of extractable chlorinated organic carriers (COCs) from textiles, foam, and leather. Using dichloromethane under ultrasonic conditions at 25簞C for 30 minutes, COCs were effectively extracted and analyzed via gas chromatography-mass spectrometry (GC-MS) with a DB-5MS column. The optimized method achieved high recoveries (95-105%), excellent precision (RSD
Instrumental Methods of Chemical Analysis
This book aims to explain the preparation of solutions and related concentration terms, and stoichiometric calculations, and to apply error analysis in the calibration and use of analytical instruments. It provides knowledge about the theory, instrumentation, and applications of atomic absorption spectrometry, UV-visible, and infrared spectroscopy. It also discusses thermal and electrochemical techniques' instrumentation, theory, and applications. It deliberates the use of different chromatographic methods in the separation and identification of mixtures.
Analytical Chemistry for students
The medical, pharmaceutical, agro-food, biological, and other diverse and interdisciplinary disciplines are just a few examples of the many diverse and multidisciplinary fields that might benefit from chemical analysis. Chemical analysis, which is based on physical or exclusively chemical approaches (as in this book), can be done qualitatively or quantitatively depending on the demands. Physical approaches are more focused on using technological tools like spectroscopy, NMR, UV or infrared, chromatography, etc. Students in their first years of specialization who require instruction and experience in this area are the target audience for this collection of courses and corrected exercises on chemical analysis techniques. It is part of a logical continuity for students who are newly installed on the benches of the university. Indeed, several knowledges are already familiar to them but require a little more depth and practice. On this last part, we considered it useful to insert some protocols of experiments and exam subjects with their corrections at the end of this manuscript.
Surface Engineering of Metal and Alloy
The various aspects of surface engineering as a revolutionary method to develop functional materials are thoroughly examined in this chapter. The investigation starts with an enlightening introduction that explores the history and importance of surface engineering as well as the motivations research. Surface modification strategies, the next thematic section, explores physical coating and deposition, chemical functionalization, nanoscale engineering, and self-assembly techniques. Particular applications are covered in detail in the following sections. In the field of polymer materials, surface engineering investigates polymer blends, composites, and surface modification. Then comes surface engineering for electronic devices, with an emphasis on semiconductor interfaces, photovoltaic engineering, and electronics applications. Drug delivery, biocompatibility, and surface modification in biomaterials are covered in the section on surface engineering biomedical applications. The conclusion offers a comprehensive view of the importance and promise of surface engineering in influencing the development of advanced materials.
AlCl3-induced Heteroarylation
This book is an update on development of methodologies towards the synthesis of N-heteroarenes via AlCl3-induced heteroarylation protocol. Undoubtedly, the AlCl3-induced heteroarylation method could be viewed as a useful alternative to the transition metal mediated cross coupling processes such as Suzuki reactions (when applied to a similar type of C-C bond forming reaction) as the protocol avoids cumbersome preparation of boronic acids or other organometallic reagents and formation of homocoupled products as byproducts. For clarity, the book provides an overview of unique methodologies such as AlCl3 induced heteroarylation-cyclization, hydroarylation-heteroarylation, sulfonyl group migration that highlights the use of AlCl3 beyond the famous Friedel-Crafts (FC) alkylation / acylation reactions leading to new N-heteroarenes of biological significance.
Synthesis of Heterocyclic Compounds Benzoxazoles & Benzimidazoles
In the realm of organic synthesis, a quiet revolution was unfolding. The pursuit of sustainability and eco-friendliness had led researchers to a humble hero: glycerol.This natural polyol compound had emerged as a promising green solvent, boasting an eco-friendly profile and versatile properties. Its potential was vast, particularly in the synthesis of heterocyclic compounds.A comprehensive guide, divided into five chapters, delved into the world of glycerol as a green solvent. From its properties and applications to its challenges and future potential, the book provided a detailed exploration of this sustainable approach.Researchers, students, and professionals in organic synthesis, green chemistry, and environmental science would find this book an invaluable resource. As the world shifted towards sustainability, glycerol stood poised to play a pivotal role in shaping the future of chemical processes.
Aspects of White Cement Production
The results of research aimed at the development of chemical technology for the production of white cement under the conditions of resource conservation and energy saving according to the program of sustainable development are given. Based on computer calculations using the created programs "Clinker" and "RomanCem", the quantitative ratios of carbonate, aluminum and silica-containing components of the raw material mixtures for the production of white Portland cement, low-temperature firing cement (
Infrared Spectroscopy of Methane Dimer
Rotationally resolved infrared spectra of weakly bound Van der Waals methane dimercomplex (CH4)2 have been detected for the first time in the in the R (0) spectral region ofthe triply degenerate bending mode ν4 of methane monomer correlating with j = 1← 0transition of CH4. The dimer complexes were produced in a supersonic jet expansion andthe spectra were recorded by a tunable diode laser (TDL) spectrometer with 40 MHzspectral resolution. Methane dimer lines were confirmed by scanning the desiredwavelength regions with a mixture of 40% methane in Ar and He-Ne separately and thenexclude the CH4-Ar and CH4-Ne complexes reported in the literature. Many dimer linesare observed between 1290 and 1320 cm-1 spectral region, but the lines are found to bemore concentrated after the band center of the fundamental vibrational modeν4 of CH4monomer (1306.25 cm-1). The spectra exhibit well resolved R branch starting at 1309.5cm-1. The P and Q branches have been predicted and fitted along with R branch based onthe estimated position of these branches in the spectrum.
Electrochemical Energy Storage Materials
The critical challenge in achieving sustainable energy transition lies in revolutionizing energy storage technologies. Electrochemical energy storage (EES) systems are emerging as the cornerstone for integrating renewable energy sources-solar, wind, and tidal power-into global grids by mitigating their inherent intermittency. This reprint illuminates groundbreaking advancements in materials science that redefine the frontiers of EES performance, durability, and scalability. Curated by pioneers in electrochemistry and materials engineering, this collection presents transformative strategies for next-generation batteries and supercapacitors. Contributions span atomic-scale mechanistic studies, sustainable synthesis protocols, and industrial-scale manufacturing breakthroughs. By bridging fundamental research with real-world deployment challenges, this reprint envisions EES technologies as enablers of a carbon-neutral future, where materials innovation harmonizes energy accessibility with planetary boundaries. Through interdisciplinary collaboration and circular design principles, we strive to transform energy storage from a technological hurdle into a catalyst for equitable, ecologically resilient societies.
Application of Liquid Chromatography-Mass Spectrometry and Related Techniques
Liquid chromatography-mass spectrometry (LC-MS) is an analytical technique that combines the excellent separation capabilities of liquid chromatography with the high selectivity and sensitivity of mass spectrometry for detection. This technology is widely applied in drug analysis, food safety, environmental monitoring, life sciences, and clinical diagnostics.
Physico-Chemical Behaviour of Beneficiated Indian Graphite
Graphite commonly called as plumbago is a soft, black crystalline form of naturally occurring carbon. Natural graphite is often found with carbonates and other carbon compounds and could be the result of their decomposition under conditions of high pressure and high temperature. Perfect crystals of graphite are very rare indeed and the imperfections and grain boundaries present in the materials are important in determining the properties of material. Impurities and absorbed gases also play an important role. Carbon materials are basically porous, having pores and cracks, sizes varying from angstrom units to several millimetre. The cracks often run along the lamellae of the carbon plane. India has a rich deposit of graphite. The total reserves of graphite in India is about 48 lakh tonnes. Properties of graphite varies from source to source depending on the mineral content, degree of graphitisation, crystal size, nature of crack and pores, specific surface areas, etc. Bulk of the graphite consumption is from the refractory Industry and major graphite suppliers in India are located in three states of India, i.e. Orissa, Jharkhand and Tamilnadu. Refractory industry uses graphite in purer form as higher ash percentage and lower degree of graphitisation deteriorates the refractory property. In presence of oxidising atmosphere, graphite oxidises very fast and deteriorates the brick property. Better the oxidation resistance of graphite better is the usefulness. The findings is expected to give an insight into the physico-chemical characteristics of Indian graphite which will ultimately lead to their best possible industrial and technological application.
Machine Learning for Protein Science and Engineering
Machine learning techniques are having a huge impact on how biologists study and understand proteins. Protein structure prediction has been revolutionized, and new tools are improving functional annotation of proteins, as well as opening up new possibilities for protein design. Written and edited by experts in the field, this collection from Cold Spring Harbor Perspectives in Biology explores the rapidly evolving intersection of machine learning and protein science. The contributors review various approaches for learning representations of proteins, as well as statistical models of co-evolution and large-scale homology searches, which have important implications for protein structure prediction. In addition, they examine applications of machine learning for functional annotation of proteins and variant effect prediction. The collection also explores generative models for protein sequence and structure and looks at the environmental impact of applying these tools, acknowledging the need to balance technological advancement with sustainable computing. It is therefore an essential reference for all scientists interested in both learning more about these techniques and implementing them in research institutions.
Kinetics of Oxidation of Beneficiated Indian Graphite
Graphite is naturally found in association with various minerals and impurities, typically exhibiting a low percentage of fixed carbon. To enhance its purity, the material undergoes a sequence of crushing, grinding, and beneficiation processes. With repeated beneficiation, the fixed carbon content increases significantly, leading to the production of high-purity graphite. In India, the primary sources of graphite include Palamau in Jharkhand, Bolangir in Odisha, and Shivaganga in Tamil Nadu.Following physico-chemical evaluation of these graphite samples, their oxidation behavior was analyzed using Differential Thermal Analysis (DTA) and Thermogravimetric Analysis (TGA). The experiments were conducted under controlled atmospheres to investigate the reaction kinetics and determine the activation energy under specific conditions. Three oxidation temperatures were selected based on the oxidation peaks observed in the DTA/TGA curves.Kinetic modeling revealed that up to certain temperatures, the oxidation rate was primarily governed by the chemical reaction between carbon and oxidizing gas at the interface. At higher temperatures, a shift from chemical control to diffusion through a decarburized pore zone was observed. The oxidation process corresponded to models such as the phase boundary-controlled reaction, contracting disc, and two-dimensional diffusion.The formation of a decarburized zone alters the activation energy, reflecting a transition in mechanism. Additionally, particle size variations influence activation energy values, showing multiple slopes across temperature ranges.
Ecocatalysis
When facing global crises of many sorts, new ways of thinking are needed. Ecocatalysis is an innovative approach and toolbox that brings together chemistry and ecology to move us toward a more sustainable and desirable future. Ecocatalysis is based on the ecological recycling that turns plants, used to restore degraded land and aquatic ecosystems, into valuable catalysts for the synthesis of complex biomolecules that can drive more ecologically and economically sound systems approaches and a new greener and more sustainable chemical industry. Written by the pioneers of ecocatalysis, this book presents and explains a series of catalytic tools for tomorrow's chemistry, building on the ecological restoration and rehabilitation of healthy, functional ecosystems upon which we depend. Written for leaders, researchers and engineers in academia and in industry, it may also be useful to all scientists excited by green chemistry, industrial chemistry, applied ecology, restoration, and equitable and sustainable local economic development.
Ferromagnetic and Ferroelectric Materials
Ferroelectric and ferromagnetic materials remain hot research topics for condensed matter physics and material science since they are an attractive realm for developing devices with enhanced functionality based on either their bulk or surface and interface properties. The application prospects in the field of nonvolatile memories, sensors, piezoelectric devices, photovoltaic applications, catalysis, and photocatalysis define new challenges. Such challenges range from defining appropriate models to understanding fundamental mechanisms, which further define their functionality, to analysis methods and investigation techniques allowing one to highlight the relevant contribution of these mechanisms to device performance. The aim of the Special Issue entitled "Ferromagnetic and Ferroelectric Materials: Synthesis, Applications, and Techniques" is to provide updated information regarding novel preparation techniques for ferroelectric and ferromagnetic systems and to understand the physics of ferroelectric and ferromagnetic surfaces in conjunction with emerging theoretical models. We will discuss the theoretical and experimental aspects of different mechanisms and disclose their impact on device functionality. We will focus on the challenges involving material modeling, process engineering, and application in conventional and organic-inorganic multiferroic systems. Theoretical perspectives combined with novel preparation and investigation approaches for ferroic materials, including powders, thin films, heterostructures, ceramics, and composites, will be brought together.
Chemical Thermodynamics
Thermodynamics can never be made easy, but with the right approach and a use of scientific terms it can be made easier, and it can give a person an insight into how science explains why things happen the way they do. The approach adopted in this book will give readers a better understanding of how science works together with its limitations.
Catalytic Reforming and Hydrogen Production
This Special Issue explores cutting-edge advances in catalytic reforming processes for sustainable hydrogen production, presenting eight original research articles and two comprehensive reviews. Topics include the dry reforming of methane (DRM), methanol steam and aqueous-phase reforming, bio-oil reforming, and photocatalytic hydrogen production. The studies reveal innovative catalytic systems, such as Ni-Ag and Ni-Ga, that enhance stability and reduce carbon deposition, while platinum-based catalysts and carbon supports optimize methanol reforming. Photocatalysts like Cu2O/CuO and La-doped MoS2 show promise for efficient solar-driven H2 generation. The reviews delve into recent developments in methanol steam reforming and cobalt manganese spinels for hydrogen evolution and VOC degradation. Together, these contributions offer deep insights into catalyst design, reaction mechanisms, and future directions for efficient and scalable hydrogen technologies in the transition toward a low-carbon energy future.
Polymer-Based Flexible Materials, 2nd Edition
"Polymer-based Flexible Materials, 2nd Edition" is a comprehensive resource that offers an in-depth exploration of the latest advancements in polymer science, particularly in the realm of flexible materials. This second edition provides a detailed and updated analysis of the synthesis, processing, and characterization of flexible polymers, with a focus on their applications across various industries such as electronics, biomedical devices, and renewable energy. The reprint delves into cutting-edge developments in flexible materials, including wearable technologies, soft robotics, and flexible electronics, while also addressing emerging topics such as sustainable and eco-friendly materials. Designed for researchers, engineers, and students in materials science, polymer chemistry, and engineering, this second edition serves as both a reference guide and an educational tool. With contributions from leading experts in the field, "Polymer-based Flexible Materials, 2nd Edition" is an essential resource for anyone who is involved in the research, development, or application of polymer-based flexible materials. It is an invaluable tool for those seeking to stay abreast of the latest trends and breakthroughs in this rapidly evolving field.
An Introduction to Forensic Science
Forensic chemistry is an essential field that connects science and justice. It uses analytical methods and chemical principles to identify chemicals, solve crimes, and produce important evidence for court cases. The goal of this textbook is to give researchers, students, and forensic experts a thorough understanding of how chemistry plays a part in forensic investigations. Important subjects covered in this book include General forensic science, Chemical analysis of finger prints, chemical analysis of explosives, examination of drugs and applications of instrumentation in forensic science. A solid basis in forensic chemistry techniques, equipment, and real-world case applications is intended to be established by each chapter. Modern analytical methods that are crucial in forensic labs, like mass spectrometry, spectroscopy, and chromatography, are given special attention. This book aims to foster critical thinking and useful problem-solving abilities in addition to imparting knowledge. Readers will learn about the duties and difficulties faced by forensic chemists through case studies, lab procedures, and ethical considerations.
Thermochemical Conversion Processes for Solid Fuels and Renewable Energies
The increasing share of renewable energy sources is drawing attention to a critical challenge. The availability of wind turbines and photovoltaic solar cells is limited and difficult to predict. They usually provide a fluctuating feed-in to the grid, so energy reserves, e.g., conventional thermal power plants or energy storage systems, are necessary to establish a balance between electricity supply and demand. Various solutions can be adopted to maintain the security of supply and improve the flexibility of the future power system, such as improving the efficiency of technical processes in areas such as thermal power plants, cement and metallurgy industries, the use of advanced thermochemical conversion technologies such as gasification, the expansion of high-voltage transmission infrastructure, the promoting of renewable energy sources, the employment of large-scale energy storage systems, and the use of highly flexible power generation units with carbon capture and utilisation, such as combined-cycle power plants. Given this background, this Special Issue contains fundamental scientific studies on the latest research progress in the development and optimisation of gasification processes, renewable energy source "solar energy", synthesis of new hybrid nanocomposites and nanofluids, carbon capture, and energy storage systems.
Carbon nanostructures characterization and applications in medicine
The book with the title "Carbon nanostructures characterization and applications in medicine" is structured in 4 chapters. Carbon nanotubes are one-dimensional carbon structures, with diameters in the nanometer range (1-100 nm) and lengths that can reach several micrometers. They are formed from one or more layers of graphene, a two-dimensional carbon material with a hexagonal structure. Carbon nanotubes are extremely resistant to tensile stress, being about 100 times stronger than steel. They can be conductive or semiconducting, depending on their configuration. This makes them useful in high-end electronics. Carbon nanotubes are excellent thermal conductors and can transport heat along them very efficiently. They are used in fields such asnanoelectronics, nanomedicine, composite materials, hydrogen storage and even in the development of optoelectronic devices. Carbon nanotubes have great potential in materials research and advanced technology, but their production in large and controlled quantities remains a challenge in terms of cost and manufacturing technology.
Mechanical Property Research of Advanced Asphalt-Based Materials
This Special Issue, entitled "Mechanical Property Research of Advanced Asphalt-Based Materials", has gathered original research papers regarding the mechanical properties of asphalt materials.
Electrospun Nanofibres
Electrospinning is a versatile method to synthesize fiber materials. Electrospun Nanofibres: Materials, Methods, and Applications explores the technical aspects of electrospinning methods used to derive a wide range of functional fiber materials and their applications in various technical sectors. As electrospinning is a process that can be modified strategically to achieve different fibers of interest, this book covers the wide spectrum of electrospinning methodologies, such as coaxial, triaxial, emulsion, suspension, electrolyte and gas-assisted spinning processes. It: Discusses a broad range of materials, including synthetic polymers, biodegradable polymers, metals and their oxides, hybrid materials, nonpolymers, and more Reviews different electrospinning methods and combined technologies Describes process-related parameters and their influence on material properties and performance Examines modeling of the electrospinning process Highlights applications across different industries This book is aimed at researchers, professionals, and advanced students in materials science and engineering.
Determination Of The Atomic Weight Of Cadmium And The Preparation Of Certain Of Its Sub-Compounds
Unlock the secrets of the atomic world with "Determination of the Atomic Weight of Cadmium and the Preparation of Certain of Its Sub-Compounds" by Harry C. Jones a masterpiece that bridges the gap between science and timeless curiosity. Once lost to the sands of time, this pivotal work has been out of print for decades, but now, thanks to Alpha Editions, it has been meticulously restored for today's and future generations. This isn't just a reprint; it's a collector's item and a cultural treasure. Dive into the meticulous research and groundbreaking discoveries that have shaped our understanding of chemistry. Jones's exploration of cadmium's atomic weight and its sub-compounds is not only a scientific triumph but also a testament to human perseverance and intellectual pursuit. Whether you're a casual reader with a thirst for knowledge or a collector of classic literature, this edition offers a unique glimpse into the past, wrapped in a beautifully restored package that honors its historical significance. Embrace the opportunity to own a piece of scientific history that continues to inspire and educate, proving that true knowledge never fades.
Discovery Of Oxygen, Part 2
Uncover the secrets of a groundbreaking discovery with "Discovery of Oxygen, Part 2" by Carl Wilhelm Scheele, a timeless masterpiece that has been out of print for decades and is now beautifully republished by Alpha Editions. This restored edition is not just a reprint; it s a collector s item and a cultural treasure, meticulously crafted for today s and future generations. Dive into the mind of one of history s most brilliant chemists as Scheele unravels the mysteries of oxygen, a revelation that forever changed the scientific world. This book offers a rare glimpse into the meticulous experiments and revolutionary insights that laid the foundation for modern chemistry. Whether you're a casual reader with a thirst for knowledge or a collector of classic literature, this edition promises to captivate and inspire. With its engaging narrative and historical significance, "Discovery of Oxygen, Part 2" is a must-have for anyone passionate about the wonders of science and the enduring power of human curiosity. Don t miss the chance to own a piece of history that continues to enlighten and inspire.
Dictionary Of Explosives
Unlock the explosive secrets of the past with "Dictionary of Explosives" by Arthur Marshall, a captivating journey into the world of pyrotechnics and chemistry. Rediscover this long-lost gem, out of print for decades and now meticulously restored by Alpha Editions for today's and future generations. This isn't just a reprint; it's a collector's item and a cultural treasure, offering a rare glimpse into the historical intricacies of explosive materials. Dive into a comprehensive exploration of the science and art behind explosives, presented in an easy-to-understand format that appeals to both casual readers and dedicated collectors of classic literature. Marshall's work stands out for its detailed descriptions and timeless insights, making it an invaluable resource for enthusiasts and historians alike. Whether you're fascinated by the chemistry of combustion or the historical context of these powerful substances, this beautifully restored edition promises to ignite your curiosity and expand your knowledge. Don't miss the chance to own a piece of literary history that bridges the past and the present, offering a unique perspective on a subject that has shaped the world in profound ways.
The Elements Of Qualitative Chemical Analysis, Vol. 1, Parts 1 And 2; With Special Consideration Of The Application Of The Laws Of Equilibrium And Of The Modern Theories Of Solution.
Unlock the secrets of the chemical world with "The Elements of Qualitative Chemical Analysis" by Julius Stieglitz, a masterpiece that has been out of print for decades and is now beautifully restored by Alpha Editions. This timeless classic, once lost to the ages, is now available for today's and future generations, offering a unique glimpse into the foundational principles of chemistry. Dive into the intricate dance of equilibrium and the modern theories of solution, presented with clarity and precision. Stieglitz's work is not just a textbook; it's a journey into the heart of scientific discovery, making complex concepts accessible and engaging for both the curious reader and the seasoned scholar. This edition is more than a reprint it's a collector's item and a cultural treasure, meticulously restored to preserve its original charm while ensuring its relevance in the modern world. Whether you're a casual reader, a chemistry enthusiast, or a collector of classic literature, this book promises to enrich your understanding and appreciation of the chemical sciences. Don't miss the chance to own a piece of history that continues to inspire and educate.
Concise Inorganic Chemistry
Foundations of Atomic Structure and Bonding: Provide a thorough overview of atomic structure, electron configurations, and the principles of bonding, including ionic, covalent, and metallic bonds. Discuss periodic trends, molecular orbital theory, and the role of atomic structure in determining chemical properties.Periodic Table and Element Properties: Explore the periodic table in detail, covering the properties and trends of groups and periods. Discuss the chemistry of each element group, including alkali metals, transition metals, halogens, and noble gases, with a focus on their unique behaviors and reactivity.Inorganic Compounds and Complexes: Examine various types of inorganic compounds, such as coordination complexes, organometallic compounds, and main group compounds. Discuss bonding theories relevant to coordination chemistry, including crystal field theory and ligand field theory.Reactivity and Mechanisms in Inorganic Chemistry: Explore the mechanisms of inorganic reactions, including substitution, oxidation-reduction, and acid-base reactions. Discuss kinetic and thrmodynamic factors affecting reactivity, as well as catalytic processes relevant to industrial chemistry.Applications and Real-World Relevance: Address the applications of inorganic chemistry in various fields, such as materials science, environmental chemistry, and bioinorganic chemistry. Discuss the role of inorganic compounds in catalysis, medicine, and sustainable energy solutions.
Fundamentals of Consciousnessology
Consciousness is one of the most profound and mysterious subjects in scientific research. To date, there is no single, unified scientific discipline dedicated exclusively to the study of consciousness.We propose that consciousness be recognized as an independent subject of study and that a new science-Consciousnessology-be established. Consciousnessology would aim to develop a cohesive and comprehensive scientific framework for investigating consciousness. Within this framework, the chemistry, kinetics, and thermodynamics of conscious processes are to be systematically examined and articulated.
Advances in Reservoir Simulation
This synthesis highlights innovations addressing reservoir heterogeneity and fracture dynamics through integrated numerical modeling, data assimilation, and multi-physics coupling. Ensemble-based algorithms (e.g., ES-MDA) enhance history matching by assimilating 4D seismic and production data, reducing uncertainties by 15-20%. Hydro-mechanical models optimized with true triaxial experiments guide Discrete Fracture Network (DFN)-driven hydraulic fracturing, boosting shale gas productivity by 40%. Proxy models like INSIM-FT and Physics-Informed Neural Networks (PINNs) enable rapid simulation, cutting computational time from weeks to hours while maintaining >85% accuracy. Machine learning (XGBoost) achieves 92% permeability prediction in carbonates, while dynamic heterogeneity analysis reveals fracture-induced permeability contrasts exceeding 103. Geomechanical frameworks quantify risks in salt cavern storage (0.12% annual creep strain) and fractured reservoirs, extending operational lifespans by 20%. Field applications demonstrate 8% recovery gains in carbonate fields via 4D seismic integration and 60% leakage risk reduction through multi-physics cement design. Emerging trends fuse data-physics models (30-50% efficiency gains) and cross-scale simulations, while challenges persist in proppant transport modeling and sparse 4D data. Future directions prioritize quantum computing for fracture networks, IoT-enabled digital twins, and adapting reservoir engineering to carbon sequestration, positioning the field as pivotal for sustainable energy transition.