The way in which academic engineering research is financed and public expectations for the outcomes from such research are changing at an unprecedented rate. The decrease in support of defense-related research, coupled with the realization that many U.S. technological products are no longer competitive in the global market, has sent a shock wave through research universities that train engineers. This book argues for several concrete actions on the part of universities, government, and industry to ensure the flow and relevance of technical talent to meet national social and economic goals, to maintain a position of leadership in the global economy, and to preserve and enhance the nation's engineering knowledge base.

Undergraduate and first-year graduate students engaging in engineering research need more than technical skills and tools to be successful. From finding a research position and funding, to getting the mentoring needed to be successful while conducting research responsibly, to learning how to do the other aspects of research associated with project management and communication, this book provides novice researchers with the guidance they need to begin developing mastery. Awareness and deeper understanding of the broader context of research reduces barriers to success, increases capacity to contribute to a research team, and enhances ability to work both independently and collaboratively. Being prepared for what's to come and knowing the questions to ask along the way allows those entering researcher to become more comfortable engaging with not only the research itself but also their colleagues and mentors.

This book explores major similarities and differences in the structure, conduct, and performance of the national technology transfer systems of Germany and the United States. It maps the technology transfer landscape in each country in detail, uses case studies to examine the dynamics of technology transfer in four major technology areas, and identifies areas and opportunities for further mutual learning between the two national systems.

Although the United States is currently capitalizing on its investment in science and technology effectively, there remains much room for improvement. This volume identifies the ingredients for success in capitalizing on such investments to produce national benefits, assesses current U.S. performance, and identifies future challenges. The book cites specific examples and examines several cross-cutting issues. It explores the possibility that the national research portfolio is losing diversity as a result of less long-term research in critical fields such as networking and materials. It also examines the implications of imbalances in the supply of and demand for science and engineering talent in emerging interdisciplinary fields such as bioinformatics.

Although the United States is currently capitalizing on its investment in science and technology effectively, there remains much room for improvement. This volume identifies the ingredients for success in capitalizing on such investments to produce national benefits, assesses current U.S. performance, and identifies future challenges. The book cites specific examples and examines several cross-cutting issues. It explores the possibility that the national research portfolio is losing diversity as a result of less long-term research in critical fields such as networking and materials. It also examines the implications of imbalances in the supply of and demand for science and engineering talent in emerging interdisciplinary fields such as bioinformatics.

Examine the vital issues facing sci-tech libraries in today's economic and technological climate! This book addresses current challenges and changes in science and technology libraries—and shows how librarians are handling them in difficult financial times. It examines issues related to closing and merging libraries, online collections maintenance and costs, assistance/outreach geared toward specific groups of library patrons, and the gathering of usage statistics in the electronic environment. You'll also find specific descriptions—and a general overview—of new technologies and case studies of the impact of new technologies on sci-tech library management. Handy tables and figures make the information easy to access and understand. Presenting a wide variety of problems and solutions, Information Practice in Science and Technology will help you understand the needs of users regarding current information technologies and how to meet them. From the editor: “Among the critical challenges facing sci-tech libraries (and actually all libraries) are the need to perform detailed collection assessment and evaluation, particularly in regard to e-resource collections; the need to examine and provide appropriate public services; and the need to develop strategies for the adoption of new information technologies. This book addresses these key issues and attempts to provide both perspective and insight into these problems.” Information Practice in Science and Technology examines: how merging academic departmental libraries can both improve services and smooth the transition to increased use of digital information the process of developing, managing, and providing access to an electronic collection—a case study from the University of Notre Dame, with special attention paid to licensing and publisher agreements how a limited Web interface can be enhanced and become a digital portal to a library's print collection—a case study from the Grainger Engineering Library at the University of Illinois how libraries can support academic faculty research in cross-disciplinary subject areas how to address the specialized subject area information needs of meteorologists and geologists outreach methods that the University of California uses to better connect with library patrons and demonstrate the services that the library offers Digital Object Identifiers (DOIs)—the new technology for archiving and linking electronic information how to gather and benefit from usage statistics, with attention to electronic databases, statistics gathered from public library terminals, and transaction log usage statistics for electronic reserves the proposals to provide all government documents through an electronic distribution system—and what that will mean to sci-tech libraries

Explores the nature of academic enterprises, including why they work the way they do and where such enterprises are headed, with the goal of gaining insights into where change can and will happen This book looks at universities from a whole-enterprise perspective. It explores the steady escalation of the costs of higher education and uses a computational economic model of complex academic enterprises. This model includes component models of research, teaching, administration, and brand value. Understanding the relationships among practices, processes, structure, and ecosystem provides the basis for transforming academia, leveraging its strengths and overcoming its limitations. More specifically, this architecture helps the reader understand how various elements of the enterprise system either enable or hinder other elements of the system, all of which are embedded in a complex behavioral and social ecosystem. Each topic is explored in terms of the levels of the architecture at which it primarily functions. Levers of change within each area are discussed, using many experiences of pursuing such issues in a range of academic enterprises. • Provides a new methodology by taking a more systems-oriented approach to education systems as a whole • Shows how various elements of the enterprise system either enable or hinder other elements of the system • Offers alternative strategies for transformation of academic enterprises Universities as Complex Enterprises: How Academia Works, Why It Works These Ways, and Where the University Enterprise Is Headed is a reference for systems scientists and engineers, economists, social scientists, and decision makers. William B. Rouse is the Alexander Crombie Humphreys Chair within the School of Systems & Enterprises and Director of the Center for Complex Systems and Enterprises at Stevens Institute of Technology, Hoboken, New Jersey. He is also Professor Emeritus, and former Chair, of the School of Industrial and Systems Engineering at the Georgia Institute of Technology, Atlanta, Georgia. Rouse has written hundreds of articles and book chapters, and has authored many books, including most recently Modeling and Visualization of Complex Systems and Enterprises (Wiley, 2015).

Co-published with and With the growing interest in undergraduate research as a high-impact practice, and the recognition that college education is increasingly moving online, this book – the first to do so – provides a framework, guidance from pioneering practitioners, and a range of examples across disciplines on how to engage remote students in research.Two foundational chapters set the scene. For those new to incorporating undergraduate research in their courses, the opening chapter provides an introduction to its evolution and practice, and reviews the evidence of its benefits for students, faculty, and institutions. The second addresses the benefit that undergraduate research can bring to online learning and provides an overview of the ways research can be incorporated into online and virtual courses to meet the course and student learning objectives. The remaining chapters illustrate implementation of undergraduate research in courses across many disciplines. They address thematic issues related to the work and its effects on students, such as transitioning them from users of, to active participants in, research; and consideration of the technological tools needed to support students in a virtual environment. The contributors, some of whom have been implementing these practices for some years, offer important insights and expertise.While the examples range across the behavioral sciences, business, education, the health professions, the humanities, social sciences, and STEM, readers will find much of value and inspiration from reading the chapters beyond their disciplines.

Advanced differential equations appear in several applications especially as mathematical models in economics, an advanced term may for example reflect the dependency on anticipated capital stock. This book also deals with nonoscillation properties of scalar advanced differential equations. Some new oscillation and nonoscillation criteria are given for linear delay or advanced differential equations with variable coefficients and not necessarily constant delays or advanced arguments. The present book has been written in the light of the latest syllabi of several Universities. The subject matter has been presented in such a way that it is easily accessible to students. The method of presentation is very clear and lucid which can be easily followed by the students. The contents conform to the specified syllabi and are so structured as to enable the student to move easily from the fundamental to the complex. It is our earnest hope that this book will be of great value to all our students.

The first volume of Frontiers of Computational Fluid Dynamics was published in 1994 and was dedicated to Prof Antony Jameson. The present volume is dedicated to Prof Earll Murman in appreciation of his original contributions to this field.The book covers the following topics:Transonic and Hypersonic AerodynamicsAlgorithm Developments and Computational TechniquesImpact of High Performance ComputingApplications in Aeronautics and BeyondIndustrial PerspectivesEngineering EducationThe book contains 25 chapters written by leading researchers from academia, government laboratories, and industry.