Design of Microcomputer-based Medical Instruments: Planning Textbooks for Higher Education in Electronic Information

Author: Lin Jiaren
Publisher:
Publish Date: 2004-09-01
Features: The book features: In terms of content, it focuses on Intel MCS-51, MCS-96 microcontrollers, and PC computers as the core, reflecting recent application achievements in medical instrument design in China. In terms of structure, it introduces typical examples with the idea of "breaking down the whole into parts" and "integrating parts into the whole," with 17 typical applications and two design examples listed throughout the book. In terms of physiological signals, it takes ECG signals as the main thread and emphasizes the combination of theory and practice, providing 12 experiments for selection. In terms of writing style, it strives for "concise and precise," with an overview, summary, and exercises at the end of each chapter, suitable for self-study. The book includes approximately 300 review and reflection questions. This book is approved by the former Ministry of Electronics Industry and planned by the National College Biomedical Engineering Teaching Guidance Committee as a key textbook for the "Nineth Five-Year Plan." The book systematically elaborates on the composition of medical instruments based on microcontrollers and PC computers, as well as the design and implementation methods of hardware and software. The book is divided into twelve chapters. Chapter 1 discusses the composition of microcomputer-based medical instruments, the sources of human physiological information, typical parameters, characteristics, design points of microcomputer-based medical instruments, and trends in instrument development. Chapter 2 introduces the design of data acquisition systems for microcomputer-based medical instruments. Chapter 3 introduces the working principles and instruction sets of MCS-51 and MCS-96 microcontrollers. Chapter 4 introduces various interface chips commonly used in microcomputer-based medical instrument design and their connections with microcontrollers. Chapter 5 explains the working principles of commonly used display devices in medical instruments and their interfaces with 80C51. Chapter 6 explains the commonly used printers and their interfaces in medical instruments. Chapter 7 introduces eight application examples of microcontroller-based medical instrument design. Chapter 8 introduces nine application examples of PC-based medical instrument design. Chapter 9 introduces the design of a portable real-time 24-hour ECG recording, display, and analysis analyzer based on the 80C196 microcontroller. Chapter 10 introduces the design of a 24-hour ECG analysis system based on PC. Chapter 11 takes the TMS320C25 as an example to describe the hardware structure, instruction set, and application of DSP devices in medical instrument design. Each chapter ends with an appropriate number of review and reflection questions for readers to review. Chapter 12 provides 12 experiments related to the course content for teaching use. This book can serve as a textbook or teaching reference for students and teachers in biomedical engineering and related fields, as well as a reference for engineering technicians and medical workers engaged in medical instrument design.