Bøker utgitt av Elsevier Science & Technology

Presents a comprehensive overview of structural and stress analysis Includes numerous worked examples and end-of-chapter problems Extensively illustrated to help visualize concepts Contains a greater focus on digital trends in structural engineering, including newer computer analysis methods and how to check output of such methods to avoid ?black-box' engineering Contains additional worked examples on plastic analysis of frames, bending moment distribution and displacement evaluations on collapse mechanics Introducescontent on statics to ensure that students know the basic concepts and can understand the equilibrium principles that govern all structures as well as the principles of the mechanisms involved in computer-based calculations.

The use of computational fluid dynamics (CFD) has emerged as a powerful tool for the understanding of fluid mechanics in multiphase reactors, which are widely used in the chemical, petroleum, mining, food, beverage and pharmaceutical industries. This book helps understand the basis and application of CFD in multiphase flow.

Highlights the practical and general aspects of the corrosion of aluminium alloys with many illustrations and references. This book allows the reader who is not very familiar with aluminium to understand the metallurgical, chemical and physical features of the aluminium alloys.

ARM-based Microcontroller Projects Using mbed gives readers a good understanding of the basic architecture and programming of ARM-based microcontrollers using ARM's mbed software. The book presents the technology through a project-based approach with clearly structured sections that enable readers to use or modify them for their application. Sections include: Project title, Description of the project, Aim of the project, Block diagram of the project, Circuit diagram of the project, Construction of the project, Program listing, and a Suggestions for expansion. This book will be a valuable resource for professional engineers, students and researchers in computer engineering, computer science, automatic control engineering and mechatronics.

Suitable for students of chemical engineering, this work covers the various aspects of process design, operations, safety, loss prevention and equipment selection and more.

Statistics for Biomedical Engineers and Scientists: How to Analyze and Visualize Data provides an intuitive understanding of the concepts of basic statistics, with a focus on solving biomedical problems. Readers will learn how to understand the fundamental concepts of descriptive and inferential statistics, analyze data and choose an appropriate hypothesis test to answer a given question, compute numerical statistical measures and perform hypothesis tests ''by hand'', and visualize data and perform statistical analysis using MATLAB. Practical activities and exercises are provided, making this an ideal resource for students in biomedical engineering and the biomedical sciences who are in a course on basic statistics. Presents a practical guide on how to visualize and analyze statistical dataProvides numerous practical examples and exercises to illustrate the power of statistics in biomedical engineering applicationsGives an intuitive understanding of statistical testsCovers practical skills by showing how to perform operations ''by hand'' and by using MATLAB as a computational toolIncludes an online resource with downloadable materials for students and teachers

Materials in Sports Equipment, Second Edition, provides a detailed review on the design and performance of materials in sports apparel, equipment and surfaces in a broad range of sporting applications. Chapters cover materials modeling, non-destructive testing, design issues for sports apparel, skull and mouth protection, and new chapters on artificial sport surfaces, anthropometric design customization, and 3D printing in sports equipment. In addition, the book covers sports-specific design and material choices in a range of key sports, from baseball, rowing, and archery, to ice hockey, snowboarding, and fishing. Users will find a valuable resource that explicitly links materials, engineering and design principles directly to sports applications, thus making it an essential resource to materials scientists, engineers, sports equipment designers and sports manufacturers developing products in this evolving field.Provides both updated and new chapters on recent developments in the design and performance of advanced materials in a number of sports applicationsDiscusses varying aspects, such as the modeling of materials behavior and non-destructive testing Analyzes the aerodynamic properties of materials and the design of sports apparel and smart materialsExplores new topics on athletic equipment, such as 3D printing and anthropometric design customization and on artificial sports surfaces

Libraries have historically played a role as a community builder, providing resources and spaces where knowledge can be archived, shared and created. They can also play a pivotal role in fostering the public''s understanding of science and scientific processes. From makerspaces to data visualization labs to exhibits, many libraries already delve into scientific explorations and many more could join them. Scientists often need to include "broader impacts" goals in grant proposals, but they might not know where to begin or feel that they do not have the time to devote to public engagement. This is where libraries and librarians can help. Research in science communication also supports tapping into libraries for public engagement with science. Studies show that it is important for scientists to present findings in an apolitical way-not aligning with one solution or one way of thinking and not being seen as an activist (Druckman, 2015; Jamieson & Hardy, 2014). One of the core tenets of librarians and libraries is to present information in a neutral way. Research also shows that Informal conversations about science can have a greater effect on people than reading about it online or hearing about it on the news (Eveland & Cooper, 2013). Again, libraries can play a role in fostering these types of conversations. Given this landscape, this book will demonstrate concrete ways that libraries and librarians can play a role in fostering public engagement with science. In addition to background information on the current landscape of public knowledge and understanding of science, it will also include best practices and case studies of different types of programming and services that libraries can offer. Often libraries do not jump to mind when people think about science education or science literacy, and many librarians do not come from a science background. Literature on science programming and sharing science is largely absent from the library field. This book will help give confidence to librarians that they can participate in engaging the public with science. At the same time, it will provide a conduit to bring informal science educators, communication officers from universities or research organizations who share scientific discoveries with the public, and librarians together to explore ways to align their work to promote scientific literacy for all.Demonstrates concrete ways that libraries and librarians can play a role in fostering public engagement with scienceFeatures best practices and case studies of different types of programming and services that libraries can offerProvides a conduit to bring informal science educators, communication officers, and librarians together to explore ways to align their work to promote scientific literacy