In the past ten years, leaders in engineering industries have identified specific knowledge, skills, and attitudes required of their workforce if they want to be innovative and competitive in a global marketplace. Engineering education programs have kept pace with emerging disciplinary knowledge, research and technologies, but have been less successful in ensuring that their graduates acquire the knowledge, skills, and attitudes desired by industry.

Evaluation by accreditation agencies and professional associations in the United States, Canada, the United Kingdom, Sweden, Denmark, South Africa, and other countries are moving toward an outcomes-based approach. These groups have specified outcomes for graduating engineers among their evaluative criteria. Their lists of skills overlap with those generated by engineering industries.

Our book describes an approach to engineering education that integrates a comprehensive set of personal and interpersonal skills, and process, product, and system building skills with disciplinary knowledge. The education of engineers is set in the context of engineering practice, that is, Conceiving, Designing, Implementing, and Operating (CDIO) through the entire lifecycle of engineering processes, products, and processes.

The CDIO model and the topics in the book will be of increasing interest in the next five to ten years. At the start of the CDIO Initiative, four leading engineering programs in the United States and Sweden adopted the CDIO model and collaborated in its development and implementation. In less than six years, the collaboration has grown to include more than twenty programs in nine different countries. This book will be both a description of the development and implementation of the CDIO model, and a guide to engineering programs worldwide who seek to improve their programs.

This book focuses on the mechanical properties and performance of products made of fiber-based materials. It helps students to develop skills for solving problems of product performance and engineering challenges in product development. Organized with a problem-based approach - practical examples of product performance are presented and the relevant mechanics are analyzed to deduce which material properties control the performance. The new edition covers state-of-the-art and green technologies as modeling of fiber networks and applications of nanocellulose.

This book focuses on the mechanical properties and performance of products made of fiber-based materials. It helps students to develop skills for solving problems of product performance and engineering challenges in product development. Organized with a problem-based approach - practical examples of product performance are presented and the relevant mechanics are analyzed to deduce which material properties control the performance. The new edition covers state-of-the-art and green technologies as modeling of fiber networks and applications of nanocellulose.

In the past ten years, leaders in engineering industries have identified specific knowledge, skills, and attitudes required of their workforce if they want to be innovative and competitive in a global marketplace. Engineering education programs have kept pace with emerging disciplinary knowledge, research and technologies, but have been less successful in ensuring that their graduates acquire the knowledge, skills, and attitudes desired by industry.

Evaluation by accreditation agencies and professional associations in the United States, Canada, the United Kingdom, Sweden, Denmark, South Africa, and other countries are moving toward an outcomes-based approach. These groups have specified outcomes for graduating engineers among their evaluative criteria. Their lists of skills overlap with those generated by engineering industries.

Our book describes an approach to engineering education that integrates a comprehensive set of personal and interpersonal skills, and process, product, and system building skills with disciplinary knowledge. The education of engineers is set in the context of engineering practice, that is, Conceiving, Designing, Implementing, and Operating (CDIO) through the entire lifecycle of engineering processes, products, and processes.

The CDIO model and the topics in the book will be of increasing interest in the next five to ten years. At the start of the CDIO Initiative, four leading engineering programs in the United States and Sweden adopted the CDIO model and collaborated in its development and implementation. In less than six years, the collaboration has grown to include more than twenty programs in nine different countries. This book will be both a description of the development and implementation of the CDIO model, and a guide to engineering programs worldwide who seek to improve their programs.

This book focuses on the mechanical properties and performance of products made of fiber-based materials. It helps students to develop skills for solving problems of product performance and engineering challenges in product development. Organized with a problem-based approach - practical examples of product performance are presented and the relevant mechanics are analyzed to deduce which material properties control the performance. The new edition covers state-of-the-art and green technologies as modeling of fiber networks and applications of nanocellulose.

This book focuses on the mechanical properties and performance of products made of fiber-based materials. It helps students to develop skills for solving problems of product performance and engineering challenges in product development. Organized with a problem-based approach - practical examples of product performance are presented and the relevant mechanics are analyzed to deduce which material properties control the performance. The new edition covers state-of-the-art and green technologies as modeling of fiber networks and applications of nanocellulose.