The biomedical engineering senior capstone design course is probably the most important course taken by undergraduate biomedical engineering students. It provides them with the opportunity to apply what they have learned in previous years, develop their communication, teamwork, project management, and design skills, and learn about the product development process. It prepares students for professional practice and serves as a preview of what it will be like to work as a biomedical engineer. The capstone design experience can change the way engineering students think about technology, themselves, society, and the world around them. It can make them aware of their potential to make a positive contribution to healthcare throughout the world and generate excitement for, and pride in, the engineering profession. Ideas for how to organize, structure, and manage a senior capstone design course for biomedical and other engineering students are presented here. These ideas will be helpful to faculty who are creating a new design course, expanding a current design program, or just looking for some ideas for improving an existing course. The better we can make these courses, the more "industry ready" our students will be, and the better prepared they will be for meaningful, successful careers in biomedical engineering. This book is the second part of a series covering Capstone Design Courses for biomedical engineers. Part I is available online here and in print (ISBN 9781598292923) and covers the following topics: Purpose, Goals, and Benefits; Designing a Course to Meet Student Needs; Enhancing the Capstone Design Courses; Meeting the Changing Needs of Future Engineers. Table of Contents: The Myth of the "Industry-Ready" Engineer / Recent Trends and the Current State of Capstone Design / Preparing Students for Capstone Design / Helping Students Recognize the Value of Capstone Design Courses / Developing Teamwork Skills / Incorporating Design Controls / Learning to Identify Problems, Unmet Needs, and New Product Opportunities / Design Verification and Validation / Liability Issues with Assistive Technology Projects / Standards in Capstone Design Courses and the Engineering Curriculum / Design Transfer and Design for Manufacturability / Learning from other Engineering Disciplines: Capstone Design Conferences / Maintaining a Relevant, Up-to-Date Capstone Design Course / Active Learning in Capstone Design Courses / Showcasing Student Projects: National Student Design Competitions / Managing Student Expectations of the "Real World" / Career Management and Professional Development / Conclusion

The biomedical engineering senior capstone design course is probably the most important course taken by undergraduate biomedical engineering students. It provides them with the opportunity to apply what they have learned in previous years, develop their communication, teamwork, project management, and design skills, and learn about the product development process. It prepares students for professional practice and serves as a preview of what it will be like to work as a biomedical engineer. The capstone design experience can change the way engineering students think about technology, themselves, society, and the world around them. It can make them aware of their potential to make a positive contribution to healthcare throughout the world and generate excitement for, and pride in, the engineering profession. Ideas for how to organize, structure, and manage a senior capstone design course for biomedical and other engineering students are presented here. These ideas will be helpful to faculty who are creating a new design course, expanding a current design program, or just looking for some ideas for improving an existing course. The better we can make these courses, the more "industry ready" our students will be, and the better prepared they will be for meaningful, successful careers in biomedical engineering. This book is the second part of a series covering Capstone Design Courses for biomedical engineers. Part I is available online here and in print (ISBN 9781598292923) and covers the following topics: Purpose, Goals, and Benefits; Designing a Course to Meet Student Needs; Enhancing the Capstone Design Courses; Meeting the Changing Needs of Future Engineers. Table of Contents: The Myth of the "Industry-Ready" Engineer / Recent Trends and the Current State of Capstone Design / Preparing Students for Capstone Design / Helping Students Recognize the Value of Capstone Design Courses / Developing Teamwork Skills / Incorporating Design Controls / Learning to Identify Problems, Unmet Needs, and New Product Opportunities / Design Verification and Validation / Liability Issues with Assistive Technology Projects / Standards in Capstone Design Courses and the Engineering Curriculum / Design Transfer and Design for Manufacturability / Learning from other Engineering Disciplines: Capstone Design Conferences / Maintaining a Relevant, Up-to-Date Capstone Design Course / Active Learning in Capstone Design Courses / Showcasing Student Projects: National Student Design Competitions / Managing Student Expectations of the "Real World" / Career Management and Professional Development / Conclusion

The biomedical engineering senior capstone design course is probably the most important course taken by undergraduate biomedical engineering students. It provides them with the opportunity to apply what they have learned in previous years; develop their communication (written, oral, and graphical), interpersonal (teamwork, conflict management, and negotiation), project management, and design skills; and learn about the product development process. It also provides students with an understanding of the economic, financial, legal, and regulatory aspects of the design, development, and commercialization of medical technology. The capstone design experience can change the way engineering students think about technology, society, themselves, and the world around them. It gives them a short preview of what it will be like to work as an engineer. It can make them aware of their potential to make a positive contribution to health care throughout the world and generate excitement for and pride in the engineering profession. Working on teams helps students develop an appreciation for the many ways team members, with different educational, political, ethnic, social, cultural, and religious backgrounds, look at problems. They learn to value diversity and become more willing to listen to different opinions and perspectives. Finally, they learn to value the contributions of nontechnical members of multidisciplinary project teams. Ideas for how to organize, structure, and manage a senior capstone design course for biomedical and other engineering students are presented here. These ideas will be helpful to faculty who are creating a new design course, expanding a current design program to more than the senior year, or just looking for some ideas for improving an existing course.

This book provides extensive information on the key technical design disciplines, education programs, international best practices and modes of delivery that are aimed at preparing a trans-disciplinary design workforce for the future. It also presents a comprehensive overview of the scope of, and state of the art in, design education. The book highlights signature design education programs from around the globe and across all levels, in both traditional and distance learning settings. Additionally, it discusses professional societies for designers and design educators, as well as the current standards for professional registration, and program accreditation. Reflecting recent advances and emerging trends, it offers a valuable handbook for design practitioners and managers, curriculum designers and program leaders alike. It will also be of interest to students and academics looking to develop a career related to the more technical aspects of design.

Part II of Health Care Engineering begins with statistics on the occurrence of medical errors and adverse events, and includes some technological solutions. A chapter on electronic medical records follows. The knowledge management process divided into four steps is described; this includes a discussion on data acquisition, storage, and retrieval. The next two chapters discuss the other three steps of the knowledge management process (knowledge discovery, knowledge translation, knowledge integration and sharing). The last chapter briefly discusses usability studies and clinical trials. This two-part book consolidates material that supports courses on technology development and management issues in health care institutions. It can be useful for anyone involved in design, development, or research, whether in industry, hospitals, or government.

Structured with a practical approach, Engineering Capstone Design guides engineering students to successfully manage capstone design projects. The book addresses the challenge of open-ended design projects, often in a team-based format, discussing team member roles, communication, and cooperation. It incorporates accreditation requirements and provides a modern framework for working with industry, reinforced by the inclusion of case studies. Offers a structured process for capstone design, responsive to ABET accreditation requirements Explains how to manage design projects under critical timelines and budgets Covers essential topics and steps in a capstone design sequence, including defining, conceiving, presenting, prototyping, building, testing, and redesigning Considers industry perspectives, as well as design competitions Includes case studies for a look into industry experience In addition to guiding engineering students conducting capstone design projects, this book will also interest industry professionals who are engaged in product development or design problem-solving.

A textbook mainly geared toward seniors in engineering, and aiming to meet the requirements for ABET (Accreditation Board for Engineering & Technology (U.S.))