SYSTEMS MANAGEMENT英文原文+翻译 学生信息管理系统
学生信息系统设计中英文对照翻译
英文：Student Information Management SystemOf a school, it can provide users with adequate information and efficient query tool. But there has been people using traditional artificial way, have brought many difficulties for data search, update and maintain.With the continuous improvement of the science and technology, computer science is the maturing of its powerful features has a profound understanding of people. Using a computer to manage student information, with a lot of manual management of the incomparable advantages, such as: the rapid retrieval, find a convenient, high reliability, memory capacity, security and good, long life, low cost. These advantages can the earth to improve work efficiency, therefore, to develop a student information management software is necessary. This system is to use the Visual FoxPro development and production of student information management system, has the following advantages:1) can be quickly and efficiently to achieve school student information, online query performance information;2) can easily achieve the elective operation;3) the statistics of students' basic information, and print4) just one to two management staff to the operating system, save a lot of manpower.System requirements analysis through surveys, the system needs to have the following features:1) requires a good man-machine interface to facilitate the management of the operation;2) the system using the object, requiring better management of privileges;3) the original data to modify a simple and convenient, multi-condition changes;4) to facilitate data queries, support for multi-criteria query;5) can automatically be selected and withdraw from the election operation according to the school courses.Considering this system is mainly aimed at schools, design Student Information Management System's main purpose is to use fast queries and computing capabilities of the computer, replacing the manual processing of management data, and thus the system should function, including students' basic information management, school offered by the course management, course management and performance management. The ongoing management of a variety of information of the students to achieve the modern office, we must often query the data, modify, add, delete, statistics and print and other operations by computer, therefore, the design of information management system should include these features module.Function of the system, combined with the practicality of operating convenience, the student information management system should include the system of the main module and query, maintenance, statistics, course selection and printing of several functional modules.1) the main module. This module is the main interface of the student information management, it is only that the population into the system. In the interface, thelegitimacy of the identification of system users, adding users, modify user operation, while the functional modules of the system operation method prompts.2) the query module. Query mode that the main function is to provide for the data query operation of the user interface, the user can select the appropriate query object based on the query target, and then specify the query basis, related to the query data.3) maintenance module. Maintenance module's main function is to allow users of the data in the database maintenance operations, such as add, delete, modify. The upper body of the procedure is to first select the need to maintain the object (table), then the data need to be celebrated by maintenance work.4) statistical module. The main function of the statistics module to achieve the results of the course students learn the appropriate statistical operations. Statistics in accordance with students' personal circumstances or single subject statistics.5) elective modules. The elective module courses offered by the school elective operating. In this module, provides courses to choose from, users can according to their course selection or withdraw from the election operation, elective operation can also be carried out under certain conditions, the courses can be selected credits and gate count statistics .6) Print module. Print print module real calamity for some basic information.In the implementation of this system, first of all according to the needs of different users to select the appropriate module, then the appropriate response based on the user's actions. Overall, the system is a transaction management system. Transaction processing, the system shown in Figure 2.Entities involved in database design student information management system student entity, program entities and achievements entity, which can create the corresponding database table used to store the data information of the entity. In this system, students entities and the results between the entities, the course entities and the results between the entities, a one-to-many relationship, through the index to establish the appropriate contact.The main interface of the system is the control system functional modules of the application program interface, the user can perform the various functions of the system, through the interface and the interface is still a form to.Functional sub-modules in the system query, the query on the students' basic information, course information and performance information, can form in the form of frames to the organization.1)"Student Information" query interface. Student information query interface the user can select the query conditions (name, student number, or professional) to find the students checked the students found will be displayed in the table below.2)"Course Information" query interface. The course information query interface, users can select your search criteria (course name, course number) to find the courses offered by the school, checked to find the courses will be displayed in the table below.3)"performance information" query interface. "Achievements" in the queryinterface, users can select the "Student Number" to query the results of the students in all courses, select the "Course Number" to find the results of the course students, checked the information found in the table below displayed.Syem maintenance interface is the main maintenance operations on the data in the database. The specific procedure is to first select the object (table) need to be maintained, then the need for a corresponding increase, delete, modify, and other operations.System statistics interface is mainly used for the statistics on student achievement, the main design in this system the two statistical methods, a statistics in accordance with the individual students, the other statistics in accordance with the Billing Division.System elective interface real calamity of the courses offered by the school elective operation. Offers a choice of courses in this interface, the user can according to their course selection or withdraw from the election operation, elective operation can also be carried out under certain conditions, the courses can be selected credits and gate count statistics. The interface by way of form.System print screen to print a variety of information. In the interface, you can call the form of statements in the form.Overall, this system is to use the Visual FoxPro development and design of a student information management system. School student information through the system, performance information query, modify, statistics, printing operations, and elective operation; these operations only one to two management staff to complete and save a lot of manpower, which greatly facilitates the school for students a variety of information management, improve the work efficiency, provided the conditions for the school of modern management.The following are a few examples of the application of the Visual FoxPro development and designExample one. Enrollment of new students is an important task of the annual new semester enrollment. Although admission enrollment database already has a lot of the new students’ electronic information, because of large number of guys, large amount of the data and the changes in timeliness require high, management is more complicated. If using the traditional manual processing,it is not only time-consuming, but also directly affect the quality of work and work efficiency, extremely incompatible with the management requirements of the Information Age . Therefore, in order to save manpower, time and to ensure the accuracy of management information, and subsequently to achieve the modernization of College Student Management, the development of college students in the unit rule requires the electronic registration system has become an urgent need to address the problem of the management and development of colleges and universities . VFP(Visual Foxpro)is a very good database application development software and an object-oriented programming language. It uses a visual programming system designed data access speed, compatibility, has strong portability and simple operation interface, easy to get started. In addition, due to the VFP itself NCRE two compulsory subjects, the school has a broad user base, therefore, the choice of the VFP design and development of college students in the electronic registrationsystem.Example two. Design and Implement a child care information management system developed with Visual Foxpro6.0. The system is based on C / S mode operation. Using the first to build a prototype of the local multi-user management information systems, and then promoted to the route of the C / S system development. This paper analyzes the system requirements, database design and system structure and function, and mainly discusses the key problems of the child care placement, system security control, and a sharing violation.Example three. College student should finish the photo collection unified by the Xinhua News Agency before graduation, it is sued for the diploma and on-line academic qualifications. Before the photo collection,students need to correctly fill in the “Higher education certificate image acquisition card”. The name card code, institution code, Where the campus, and other information are unfimiliar to students who are relatively unknown. Inorder to better serve students, usually bit is the school who to collate and print out the data need to fill in the information capture card data items ,then Released to the students to fill.Example four.Facing of in a wide variety of data and reports that in the evaluation process of the private enterprises, manual handling has been significantly behind the pace of modern management, the use of modern IT in the management of the assessment process is becoming a trend, based on the the VFP evaluation of management information systems, a fully object-oriented analysis and design methods, more human-friendly interface, simple and easy-to-read algorithms to achieve a convenient entry, classification, query, statistics, reports, print function, so that private enterprise assessment management can be more systematic and standardized, automation, improve work efficiency.中文：学生信息管理系统学生信息管理系统是一个学校不可缺少的部分，它能够为用户提供充足的信息和快捷的查询手段。
信息管理系统中英文翻译
外文资料：Information management systemWiliam K.Thomson U.S.AAbstract:An information storage, searching and retrieval system for large (gigabytes) domains of archived textual dam. The system includes multiple query generation processes, a search process, and a presentation of search results that is sorted by category or type and that may be customized based on the professional discipline(or analogous personal characteristic of the user), thereby reducing the amount of time and cost required to retrieve relevant results.Keyword:Information management Retrieval system Object-Oriented1.INTRUDUCTIONThis invention relates to an information storage, searching and retrieval system that incorporates a novel organization for presentation of search results from large (gigabytes) domains of archived textual data.2.BACKGROUDN OF THE INVENTIONOn-line information retrieval systems are utilized for searching and retrieving many kinds of information. Most systems used today work in essentially the same manner; that is, users log on (through a computer terminal or personal microcomputer, and typically from a remote location), select a source of information (i.e., a particular database) which is usually something less than the complete domain, formulate a query, launch the search, and then review the search results displayed on the terminal or microcomputer, typically with documents (or summaries of documents) displayed in reverse chronological order. This process must be repeated each time another source (database) or group of sources is selected (which is frequently necessary in order to insure all relevant documents have been found).Additionally, this process places on the user the burden of organizing and assimilating the multiple results generated from the launch of the same query in each of the multiple sources (databases) that the user needs(or wants) to search. Present systems that allow searching of large domains require persons seeking information in these domains to attempt to modify their queries to reduce the search results to a size that the user can assimilate by browsing through them (thus, potentially eliminating relevant results).In many cases end users have been forced to use an intermediary (i.e., a professional searcher) because the current collections of sources are both complex and extensive, and effective search strategies often vary significantly from one source to another. Even with such guidance, potential relevant answers are missed because all potentially relevant databases or information sources are not searched on every query. Much effort has been expended on refining and improving source selection by grouping sources or database files together. Significant effort has also been expended on query formulation through the use of knowledge bases and natural language processing. However, as the groupings of sources become larger, and the responses to more comprehensive search queries become more complete, the person seeking information is often faced with the daunting task of sifting through large unorganized answer sets in an attempt to find the most relevant documents or information.3.SUMMARY OF THE INVENTIONThe invention provides an information storage, searching and retrieval system for a large domain of archived data of various types, in which the results of a search are organized into discrete types of documents and groups of document types so that users may easily identify relevant information more efficiently and more conveniently than systems currently in use. The system of the invention includes means for storing a large domain of data contained in multiple source records, at least some of the source records being comprised of individual documents of multiple document types; means for searching substantially all of the domain with a single search query to identify documents responsive to the query; and means for categorizing documents responsive to the query based on document type, including means for generating a summary of the number of documents responsive to the query which fall within various predetermined categories of document types.The query generation process may contain a knowledge base including a thesaurus that has predetermined and embedded complex search queries, or use natural language processing, or fuzzy logic, or tree structures, or hierarchical relationship or a set of commands that allow persons seeking information to formulate their queries.The search process can utilize any index and search engine techniques including Boolean, vector, and probabilistic as long as a substantial portion of the entire domain of archived textual data is searched for each query and all documents found are returned to the organizing process.The sorting/categorization process prepares the search results for presentation by assembling the various document types retrieved by the search engine and then arranging these basic document types into sometimes broader categories that are readily understood by and relevant to the user.The search results are then presented to the user and arranged by category along with an indication as to the number of relevant documents found in each category. The user may then examine search results in multiple formats, allowing the user to view as much of the document as the user deems necessary.4.BRIEF DESCRIPTION OF THE DRAWINGSFIG. 1 is a block diagram illustrating an information retrieval system of the invention;FIG. 2 is a diagram illustrating a query formulation and search process utilizedin the invention;FIG. 3 is a diagram illustrating a sorting process for organizing and presentingsearch results.5.BEST MODE FOR CARRYING OUT THE INVENTIONAs is illustrated in the block diagram of FIG. 1 , the information retrieval system of the invention includes an input/output process ,a query generation process, a search process that involves a large domain of textual data (typically in the multiple gigabyte range), an organizing process, presentation of the information to the user, and a process to identify and characterize the types of documents contained in the large domain of data.Turning now to FIG. 2, the query generation process preferably includes a knowledge base containing a thesaurus and a note pad, and preferably utilizes embedded predefined complex Boolean strategies. Such a system allows the user to enter their description of the information needed using simple words/phrases made up of "natural" language and to rely on the system to assist in generating the full search query, which would include, e.g., synonyms and alternate phraseology. The user can then request, by a command such as "VI CO 1", to view the completedocument selected from the list, giving, in this case, complete information about the identity and credentials of the expert.FIG. 3 illustrates how five typical sources of information (i.e., source records) can be sorted into many document types and then subsequently into categories. For example, a typical trade magazine may contain several types of information such as editorials, regular columns, feature articles, news, product announcements, and a calendar of events. Thus, the trade magazine (i.e., the source record) may be sorted into these various document types, and these document types in turn may be categorized or grouped into categories contained in one or more sets of categories; each document type typically will be sorted into one category within a set of categories, but the individual categories within each set will vary from one set to another. For example, one set of categories may be established for a first characteristic type of user, and a different set of categories may be established for a second characteristic type of user. When a user corresponding to type #1 executes a search, the system automatically utilizes the categories of set #1, corresponding to that particular type of user, in organizing the results of the search for review by the user. When a user from type #2 executes a search, however, the system automatically utilizes the categories of set #2 in presenting the search results to the user.The information storage, searching and retrieval system of the invention resolves the common difficulties in typical on-line information retrieval systems that operate on large (e.g., 2 gigabytes or more) domains of textual data, query generation, source selection, and organizing search results. The information base with the thesaurus and embedded search strategies allows users to generate expert search queries in their own "natural" language. Source (i.e., database) selection is not an issue because the search engines are capable of searching substantially the entire domain on every query. Moreover, the unique presentation of search results by category set substantially reduces the time and cost of performing repetitive searches in multiple databases and therefore of efficiently retrieving relevant search results.While a preferred embodiment of the present invention has been described, it should be understood that various changes, adaptations and modifications may be made therein without departing from the spirit of the invention and the scope of the appended claims.中文译文：信息管理系统Wiliam K.Thomson U.S.A摘要：一个信息存储，查询和检索系统主要应用于大(千兆字节)的需要存档的文字领域。
信息管理系统中英文翻译
外文资料：Information management systemWiliam K.Thomson U.S.AAbstract:An information storage, searching and retrieval system for large (gigabytes) domains of archived textual dam. The system includes multiple query generation processes, a search process, and a presentation of search results that is sorted by category or type and that may be customized based on the professional discipline(or analogous personal characteristic of the user), thereby reducing the amount of time and cost required to retrieve relevant results.Keyword:Information management Retrieval system Object-Oriented1.INTRUDUCTIONThis invention relates to an information storage, searching and retrieval system that incorporates a novel organization for presentation of search results from large (gigabytes) domains of archived textual data.2.BACKGROUDN OF THE INVENTIONOn-line information retrieval systems are utilized for searching and retrieving many kinds of information. Most systems used today work in essentially the same manner; that is, users log on (through a computer terminal or personal microcomputer, and typically from a remote location), select a source of information (i.e., a particular database) which is usually something less than the complete domain, formulate a query, launch the search, and then review the search results displayed on the terminal or microcomputer, typically with documents (or summaries of documents) displayed in reverse chronological order. This process must be repeated each time another source (database) or group of sources is selected (which is frequently necessary in order to insure all relevant documents have been found).Additionally, this process places on the user the burden of organizing and assimilating the multiple results generated from the launch of the same query in each of the multiple sources (databases) that the user needs (or wants) to search. Present systems that allow searching of large domains require persons seeking information in these domains to attempt to modify their queries to reduce the search results to a size that the user can assimilate by browsing through them (thus, potentially eliminating relevant results).In many cases end users have been forced to use an intermediary (i.e., a professional searcher) because the current collections of sources are both complex and extensive, and effective search strategies often vary significantly from one source to another. Even with such guidance, potential relevant answers are missed because all potentially relevant databases or information sources are not searched on every query. Much effort has been expended on refining and improving source selection by grouping sources or database files together. Significant efforthas also been expended on query formulation through the use of knowledge bases and natural language processing. However, as the groupings of sources become larger, and the responses to more comprehensive search queries become more complete, the person seeking information is often faced with the daunting task of sifting through large unorganized answer sets in an attempt to find the most relevant documents or information.3.SUMMARY OF THE INVENTIONThe invention provides an information storage, searching and retrieval system for a large domain of archived data of various types, in which the results of a search are organized into discrete types of documents and groups of document types so that users may easily identify relevant information more efficiently and more conveniently than systems currently in use. The system of the invention includes means for storing a large domain of data contained in multiple source records, at least some of the source records being comprised of individual documents of multiple document types; means for searching substantially all of the domain with a single search query to identify documents responsive to the query; and means for categorizing documents responsive to the query based on document type, including means for generating a summary of the number of documents responsive to the query which fall within various predetermined categories of document types.The query generation process may contain a knowledge base including a thesaurus that has predetermined and embedded complex search queries, or use natural language processing, or fuzzy logic, or tree structures, or hierarchical relationship or a set of commands that allow persons seeking information to formulate their queries.The search process can utilize any index and search engine techniques including Boolean, vector, and probabilistic as long as a substantial portion of the entire domain of archived textual data is searched for each query and all documents found are returned to the organizing process.The sorting/categorization process prepares the search results for presentation by assembling the various document types retrieved by the search engine and then arranging these basic document types into sometimes broader categories that are readily understood by and relevant to the user.The search results are then presented to the user and arranged by category along with an indication as to the number of relevant documents found in each category. The user may then examine search results in multiple formats, allowing the user to view as much of the document as the user deems necessary.4.BRIEF DESCRIPTION OF THE DRAWINGSFIG. 1 is a block diagram illustrating an information retrieval system of the invention;FIG. 2 is a diagram illustrating a query formulation and search process utilized in the invention;FIG. 3 is a diagram illustrating a sorting process for organizing and presenting search results.5.BEST MODE FOR CARRYING OUT THE INVENTIONAs is illustrated in the block diagram of FIG. 1 , the information retrieval system of the invention includes an input/output process ,a query generation process, a search process that involves a large domain of textual data (typically in the multiple gigabyte range), an organizing process, presentation of the information to the user, and a process to identify and characterize the types of documents contained in the large domain of data.Turning now to FIG. 2, the query generation process preferably includes a knowledge base containing a thesaurus and a note pad, and preferably utilizes embedded predefined complex Boolean strategies. Such a system allows the user to enter their description of the information needed using simple words/phrases made up of "natural" language and to rely on the system to assist in generating the full search query, which would include, e.g., synonyms and alternate phraseology. The user can then request, by a command such as "VI CO 1", to view the complete document selected from the list, giving, in this case, complete information about the identity and credentials of the expert.FIG. 3 illustrates how five typical sources of information (i.e., source records) can be sorted into many document types and then subsequently into categories. For example, a typical trade magazine may contain several types of information such as editorials, regular columns, feature articles, news, product announcements, and a calendar of events. Thus, the trade magazine (i.e., the source record) may be sorted into these various document types, and these document types inturn may be categorized or grouped into categories contained in one or more sets of categories; each document type typically will be sorted into one category within a set of categories, but the individual categories within each set will vary from one set to another. For example, one set of categories may be established for a first characteristic type of user, and a different set of categories may be established for a second characteristic type of user. When a user corresponding to type #1 executes a search, the system automatically utilizes the categories of set #1, corresponding to that particular type of user, in organizing the results of the search for review by the user. When a user from type #2 executes a search, however, the system automatically utilizes the categories of set #2 in presenting the search results to the user.The information storage, searching and retrieval system of the invention resolves the common difficulties in typical on-line information retrieval systems that operate on large (e.g., 2 gigabytes or more) domains of textual data, query generation, source selection, and organizing search results. The information base with the thesaurus and embedded search strategies allows users to generate expert search queries in their own "natural" language. Source (i.e., database) selection is not an issue because the search engines are capable of searching substantially the entire domain on every query. Moreover, the unique presentation of search results by category set substantially reduces the time and cost of performing repetitive searches in multiple databases and therefore of efficiently retrieving relevant search results.While a preferred embodiment of the present invention has been described, it should be understood that various changes, adaptations and modifications may be made therein without departing from the spirit of the invention and the scope of the appended claims.中文译文：信息管理系统Wiliam K.Thomson U.S.A摘要：一个信息存储，查询和检索系统主要应用于大(千兆字节)的需要存档的文字领域。
外文翻译-----学生信息管理系统的设计与发展
外文翻译-----学生信息管理系统的设计与发展随着信息技术的不断发展，各种管理系统相继出现，使得日常生活变得更加有条理，网络资源的合理利用可以减少人工管理的不便和时间浪费。
随着21世纪现代化程度的加速和科学文化水平的提高，学生数量的急剧增长增加了管理学生信息的压力。
人工检索的低效完全不符合社会的需要。
因此，学生信息管理系统是信息管理系统中的一种。
目前，随着信息技术的不断发展，网络技术已经广泛应用于各行各业。
各高校都利用计算机来管理办学，以前需要手工操作的繁琐事务都得到了快速且高效率的解决。
特别是学生成绩管理系统在学校中起到了很大的作用，对于学生和教师来说都能够更方便、快捷、准确地了解和管理各方面信息。
Managing a XXX involves a lot of data entry。
querying。
XXX。
the n of computer management systems XXX。
managing student n is a complex and us task due to the large number of students and the extensive database of student n。
To address this issue。
a student n management system was developed using the powerful VB6.0 development tool。
The system was designed tomeet the requirements of easy n。
attractive and flexible interface。
and practicality。
It covers the entire process of student n management。
including system management。
学生基本信息管理系统英语
学生基本信息管理系统英语In the fast-paced world of technology, the need for efficient and effective tools to manage student information has become paramount. The Student Information Management System (SIMS) is a cutting-edge solution thatrevolutionizes the way educational institutions handle and store student data. This system not only enhances the overall administrative efficiency but also ensures the accuracy and security of sensitive student information.The core functionality of SIMS revolves around the centralized storage and retrieval of student details. These details range from basic information such as name, age, and gender to academic records, attendance, and disciplinary actions. The system allows educators and administrators to access this information seamlessly, enabling them to make informed decisions and provide personalized learning experiences.One of the most significant benefits of SIMS is its ability to streamline administrative tasks. With all student data stored in one central location, teachers and administrators can spend less time searching forinformation and more time focusing on teaching and learning. This saves valuable resources and enables educational institutions to function more efficiently.Moreover, SIMS enhances the accuracy of student data. Automated data entry and validation features reduce the chances of human error, ensuring that student records are accurate and up-to-date. This is crucial for tracking student progress, identifying areas of need, and planning appropriate interventions.Security is another crucial aspect of SIMS. With strict data encryption and access controls, the system ensuresthat student information remains confidential and protected from unauthorized access. This is especially important in today's digital age, where data breaches and privacy concerns are on the rise.However, it's important to note that the effectivenessof SIMS depends heavily on the quality of data entered into the system. If the initial data is incomplete or inaccurate, the system's ability to provide valuable insights and support decision-making will be compromised. Therefore,it's essential to invest in training and educating staff on the importance of accurate data entry.Additionally, SIMS can be customized to meet the specific needs of different educational institutions. Whether it's a primary school, secondary school, or university, the system can be tailored to accommodate unique requirements and processes. This flexibility allows institutions to leverage the full potential of SIMS and maximize its benefits.In conclusion, the Student Information Management System is a critical tool for modern education. It revolutionizes the way student data is managed, enhancing administrative efficiency, ensuring data accuracy, and safeguarding student privacy. By investing in this technology, educational institutions can streamline operations, improve decision-making, and ultimately provide a better learning experience for their students.**学生信息管理系统：现代教育的关键工具**在科技快速发展的今天，对于高效、实用的学生信息管理工具的需求变得至关重要。
信息管理与信息系统专业英语作文
信息管理与信息系统专业英语作文Information Management and Information SystemsInformation Management and Information Systems (IMIS) is a rapidly growing field that focuses on the effective management of information within organizations. With the increasing reliance on technology in today's business world, the demand for professionals with expertise in IMIS is on the rise. This article will explore the key concepts and skills required in the field of IMIS, as well as the career opportunities available to those with a background in this discipline.Key Concepts in Information Management and Information SystemsIMIS encompasses a wide range of topics related to the collection, storage, analysis, and dissemination of information within an organization. Some of the key concepts that are covered in IMIS programs include:- Database Management: Database management systems are essential for storing and organizing large amounts of data. Students in IMIS programs learn how to design, implement, and maintain databases that are efficient and secure.- Data Analytics: Data analytics involves using data to make informed business decisions. IMIS professionals use tools and techniques to analyze data and extract valuable insights that can help organizations improve their operations.- Information Security: Protecting sensitive information from unauthorized access is a critical aspect of IMIS. Students learn about the latest security threats and how to implement measures to safeguard data.- Project Management: IMIS professionals often work on projects to implement new systems or improve existing ones. Project management skills are essential for ensuring that projects are completed on time and within budget.- Business Process Improvement: IMIS professionals help organizations streamline their processes through the use of technology. By automating tasks and eliminating inefficiencies, businesses can improve their overall performance.Career Opportunities in Information Management and Information SystemsIndividuals with a background in IMIS have a wide range of career opportunities available to them. Some common job titles in this field include:- Information Systems Manager: Information systems managers oversee the implementation and maintenance of technology systems within an organization. They ensure that technology aligns with business goals and that systems are secure and efficient.- Data Analyst: Data analysts are responsible for collecting, analyzing, and interpreting data to help organizations make strategic decisions. They use statistical tools and techniques to uncover trends and insights within data sets.- IT Consultant: IT consultants provide advice and guidance to organizations on how to best utilize technology to achieve their goals. They may be involved in system design, implementation, and training.- Database Administrator: Database administrators are responsible for managing and maintaining databases within an organization. They ensure that data is accurate, secure, and easily accessible to users.- Information Security Analyst: Information security analysts are tasked with protecting organizations from cyber threats. They monitor systems for potential breaches, implement security measures, and respond to security incidents.ConclusionInformation Management and Information Systems is a dynamic and rewarding field that offers a variety of career opportunities for individuals with a passion for technology and data. By pursuing a degree in IMIS, students can acquire the skills and knowledge needed to succeed in this rapidly evolving industry. Whether you are interested in database management, data analytics, or information security, there is a role for you in IMIS. So why wait? Start your journey towards a successful career in Information Management and Information Systems today!。
信息管理与信息系统中英文对照外文翻译文献
信息管理与信息系统中英文对照外文翻译文献一、引言在当今数字化和信息化的时代，信息管理与信息系统（Information Management and Information System，简称 IMIS）成为了企业和组织运营中至关重要的组成部分。
有效的信息管理能够帮助企业提高决策效率、优化业务流程、增强竞争力。
而信息系统则为信息的收集、存储、处理和传播提供了技术支持。
为了更深入地了解这一领域，我们对相关的外文文献进行了翻译和研究。
二、信息管理的概念与重要性信息管理是指对信息资源进行规划、组织、领导和控制的过程。
其目的是确保信息的准确性、完整性、及时性和可用性，以满足组织内部不同层次的需求。
在当今竞争激烈的市场环境中，信息已成为一种宝贵的资源，企业能否有效地管理和利用信息，直接关系到其生存和发展。
例如，一家制造企业通过对市场需求信息、生产过程信息和供应链信息的有效管理，可以实现精准的生产计划，降低库存成本，提高客户满意度。
同时，信息管理还能够帮助企业识别潜在的市场机会和风险，为战略决策提供有力支持。
三、信息系统的类型与功能信息系统主要包括事务处理系统（Transaction Processing System，TPS）、管理信息系统（Management Information System，MIS）、决策支持系统（Decision Support System，DSS）和企业资源规划系统（Enterprise Resource Planning，ERP）等。
事务处理系统主要用于处理日常的业务交易，如订单处理、库存管理等。
管理信息系统则提供了综合的信息报告，帮助管理人员进行监督和控制。
决策支持系统通过数据分析和模型构建，为管理层的决策提供支持。
企业资源规划系统则整合了企业的各种资源，实现了业务流程的集成和优化。
以一家跨国零售企业为例，其使用的企业资源规划系统能够实现全球范围内的库存实时监控、采购协同和财务统一管理，大大提高了运营效率和管理水平。
学生信息管理系统(1)
学生信息管理系统论文2010-04-01 清华领导力培训诺贝尔论文网在传统模式下利用人工进行学生信息管理系统论文，存在着较多缺点，如：效率底，保密性差，时间一长将产生大量文件和数据，更不便于查找，更新，维护等。
诸如这些情况，学校管理者对学生信息管理系统论文带来很大困难，严重影响教育工作者的工作效率。
一、引言学生信息管理系统（Student Information Management System），以下简称SIMS，是针对学校人事处的大量业务处理工作而开发的管理软件，是典型的管理信息系统。
它是一个教育单位不可缺少的部分，它的内容对于学校的决策者和管理者来说都至关重要，它能够为用户提供充足的信息和快捷的查询手段。
能有效的帮助学校和老师掌握学生的情况，为学生提供成绩跟课程方面的查询。
在传统模式下利用人工进行学生信息管理系统论文，存在着较多的缺点，如：效率底，保密性差，时间一长将产生大量的文件和数据，更不便于查找，更新，维护等。
诸如这些情况，令学校管理者对学生信息管理系统论文带来了很大困难，严重影响了教育工作者的工作效率。
随着科学技术的不断提高，计算机科学日渐成熟，使用日趋成熟的计算机技术来代替传统的人工模式，来实现学生信息的现代化管理，其强大的功能已为人们深刻认识，它已进入人类社会的各个领域并发挥着越来越重要的作用。
作为计算机应用的一部分，使用计算机对学生信息进行管理，具有着手工管理所无法比拟的优点.例如：检索迅速、查找方便、易修改、可靠性高、存储量大、数据处理快捷、保密性好、寿命长、成本低、便于打印等。
这些优点能够极大地提高学生信息管理系统论文的效率，也是学校的科学化、正规化管理，与世界接轨的重要条件。
用计算机制作的学生信息管理系统论文还可以通过功能强大的Internet网及时的向学生的家长传递该生在校的最新成绩，有助于学校与家长的信息互动，为更好地把握学校的教育方针起到了一定的促进作用！因此，开发这样一套管理软件成为很有必要的事情。
管理信息系统外文翻译
英文文献翻译二〇年月日科技文章摘译Definition of a Management Information SystemThere is no consensus of the definition of the term "management information system". Some writers prefer alternative terminology such as "information processing system", "information and decision system", "organizational information system", or simply "information system" to refer to the computer-based information processing system which supports the operations, management, and decision-making functions of an organization. This text uses “MIS” because it is descriptive and generally understood; it also frequently uses “information system” instead of “MIS” to refer to an organizational information system.A definition of a management information system, as the term is generally understood, is an integrated, user-machine system for providing information to support operations, management, and decision-making functions in an organization. The system utilizes computer hardware and software; manual procedures; models for analysis planning, control and decision making; and a database. The fact that it is an integrated system does not mean that it is a single, monolithic structure; rather, it means that the parts fit into an overall design. The elements of the definition are highlighted below.1 Computer-based user-machine systemConceptually, management information can exist without computer, but it is the power of the computer which makes MIS feasible. The question is not whether computers should be used in management information system, but the extent to which information use should be computerized. The concept of a user-machine system implies that some tasks are best performed by humans, while others are best done by machine. The user of an MIS is any person responsible for entering input data, instructing the system, or utilizing the information output of the system. For many problems, the user and the computer form a combined system with results obtained through a set of interactions between the computer and the user.User-machine interaction is facilitated by operation in which the user’s input-output device (usually a visual display terminal) is connected to the computer. The computer can be a personal computer serving only one user or a large computer that serves a number of users through terminals connected by communication lines. The user input-output device permits direct input of data and immediate output of results. For instance, a person using the computer interactively in financial planning poses “what if” questions by entering input at the terminal keyboard; the results are displayed on the screen in a few second.The computer-based user-machine characteristics of an MIS affect the knowledge requirements of both system developer and system user. “computer-based” means that the designer of a management information system must have knowledge of computers and of their use in processing. The “user-machine” concept means the system designer should also understand the capabilities of humans as system components (as information processors) and the behavior of humans as users of information.Information system applications should not require users to be computer experts. However, users need to be able to specify their information requirements; some understanding of computers, the nature of information, and its use in various management function aids users in this task.2 Integrated systemManagement information system typically provides the basis for integration of organizational information processing. Individual applications within information systems are developed for and by diverse sets of users. If there are no integrating processes and mechanisms, the individual applications may be inconsistent and incompatible. Data item may be specified differently and may not be compatible across applications that use the same data. There may be redundant development of separate applications when actually a single application could serve more than one need. A user wanting to perform analysis using data from two different applications may find the task very difficult and sometimes impossible.The first step in integration of information system applications is an overall information system plan. Even though application systems areimplemented one at a time, their design can be guided by the overall plan, which determines how they fit in with other functions. In essence, the information system is designed as a planed federation of small systems.Information system integration is also achieved through standards, guidelines, and procedures set by the MIS function. The enforcement of such standards and procedures permit diverse applications to share data, meet audit and control requirements, and be shares by multiple users. For instance, an application may be developed to run on a particular small computer. Standards for integration may dictate that the equipment selected be compatible with the centralized database. The trend in information system design is toward separate application processing form the data used to support it. The separate database is the mechanism by which data items are integrated across many applications and made consistently available to a variety of users. The need for a database in MIS is discussed below.3 Need for a databaseThe term “information” and “data” are frequently used interchangeably; however, information is generally defined as data that is meaningful or useful to the recipient. Data items are therefore the raw material for producing information.The underlying concept of a database is that data needs to be managed in order to be available for processing and have appropriate quality. This data management includes both software and organization. The software to create and manage a database is a database management system.When all access to any use of database is controlled through a database management system, all applications utilizing a particular data item access the same data item which is stored in only one place. A single updating of the data item updates it for all uses. Integration through a database management system requires a central authority for the database. The data can be stored in one central computer or dispersed among several computers; the overriding requirement is that there is an organizational function to exercise control.4 Utilization of ModelsIt is usually insufficient for human recipients to receive only raw data or even summarized data. Data usually needs to be processed andpresented in such a way that the result is directed toward the decision to be made. To do this, processing of data items is based on a decision model. For example, an investment decision relative to new capital expenditures might be processed in terms of a capital expenditure decision model.Decision models can be used to support different stages in the decision-making process. “Intelligence” models can be used to search for problems and/or opportunities. Models can be used to identify and analyze possible solutions. Choice models such as optimization models maybe used to find the most desirable solutionIn other words, multiple approaches are needed to meet a variety of decision situations. The following are examples and the type of model that might be included in an MIS to aid in analysis in support of decision-making; in a comprehensive information system, the decision maker has available a set of general models that can be applied to many analysis and decision situations plus a set of very specific models for unique decisions. Similar models are available for planning and control. The set of models is the model base for the MIS.The management information system (MIS) not only supports the underlying bed administrator, moreover may support the intermediate deck personnel's control check, for high level also can provide certain information. The management information system frame by four parts: Information source, information processor, information user and information superintendent. The information source is the information production place; Information processor burden task/role and so on information transmission, processing, save; The information user is the information user, carries on the decision-making using the information; The information superintendent is responsible for the information system the design, the implementation and the safeguarding. The management information system is regarded as generally a pyramid shape the structure, divides into from the lower level handling of traffic to the operating control, the control check, the topmost story strategic planning. The most basic unit greatly processes the numerous and diverse transaction information and the state information framing by the task/role.In a word, the management information system (Management InformationSystem, MIS), is by the artificial leadership, using the computer hardware, the software, the network communicates these devices and other office equipments carries on the information the collection, the transmission, the processing, the storage, the update and the safeguarding by achieved the enterprise strategy competes superior, enhances the benefit and the efficiency target, supports the enterprise the high level decision-making, the intermediate deck check and the basic unit operation integration man-machine system. MIS is the superintendent provides the report, provides the enterprise the recent situation as well as the historic record. This system main localization is aims at in the enterprise, for control function and so on level plan, check and decision-making serves, provides the data generally by the lower level handling of traffic system. MIS will be able the actual enterprise's each kind of run situation, and using the past historical data forecast future, embarks the assistance enterprise from the enterprise overall situation angle to carry on the decision-making, used the message control enterprise the behavior, helped the enterprise to achieve its plan管理信息系统的定义对于“管理信息系统”并没有一致的定义。
毕业生信息管理系统_外文翻译(范文)
外文文献资料Buses and InterfacesThe buses and interfaces are the fabric that connects the CPU to the peripherals that are part of the system. Each bus and interface has its own intricacies, and the level of support provided by Linux to the different buses and interfaces varies accordingly. The following is a rundown of the buses and interfaces found in embedded systems and a discussion of their support by Linux. Linux supports many other buses, such as SBus, NuBus, TurboChannel, and MCA, but these are workstation or server-centric.1. ISAThe Industry Standard Architecture (ISA) bus was designed for and occupied the core of PC-AT architecture. It was odd even for its time, as it did not provide many of the facilities other buses offered, including ease of mapping into normal processor physical address space. Its simplicity, however, favored the proliferation of many devices for the PC, which, in turn, favored the use of PCs in embedded applications.ISA devices are mostly accessed through the I/O port programming already available in the x86's instruction set. Therefore, the kernel does not need to do any work to enable device drivers to use the bus. Instead, the various device drivers access the appropriate I/O ports directly using the in/out assembly functions. Although the kernel provides support for Plug and Play (PNP) devices, this capability is of little use for embedded applications. Instead, embedded systems that do need to support hardware variations will be based on buses that support runtime hardware addition and removal, such as CompactPCI, PCMCIA, and USB. The kernel also supports Extended ISA (EISA) devices, but this bus has not been very popular and has been superseded by the PCI bus.2. PCIThe Peripheral Component Interconnect (PCI) bus, managed by the PCI Special Interest Group (PCI-SIG), is arguably the most popular bus currently available. Designed as a replacement for ISA, it is used in combination with many different architectures, including the PPC and the MIPS, to build different types of systems,including embedded devices.Unlike ISA, PCI requires software support to enable it to be used by device drivers. The first part of this support is required to initialize and configure the PCI devices upon bootup. On PC systems, this is traditionally done by the BIOS. However, the kernel is capable of carrying out this task itself. If the BIOS has carried out the initialization, the kernel will browse the BIOS's table to retrieve the PCI information. In both cases, the kernel provides device drivers with an API to access information regarding the devices on the PCI bus and act on these devices. There are also a number of user tools for manipulating PCI devices. In short, the level of support for PCI in Linux is fairly complete and mature.3.PCMCIAPersonal Computer Memory Card International Association (PCMCIA) is both the common name of a bus and the name of the organization that promotes and maintains related standards. Since the publication of the initial standard, which supported only 16-bit cards, other standards have been published, including the 32-bit CardBus and the USB CardBay specifications. When part of an embedded system, PCMCIA renders it flexible and easy to extend. On the iPAQ, for instance, it enables users to connect to a LAN using a wireless networking card. In other systems, it makes large permanent storage space available through the use of CompactFlash cards.The extent of Linux support for PCMCIA can be confusing. First and foremost, there is the main Linux PCMCIA project, which is hosted on SourceForge at :/// and is maintained by David Hinds. The package made available by this project supports a large number of cards, Linux support for PCMCIA is quite mature for the i386 architecture and available in part for the PPC, but unfortunately, it's still in its infancy for other chips at the time of this writing. Apart from the package maintained by Hinds, the official kernel contains support for a portion of the PCMCIA cards supported by the Hinds' package. The developers' intent is to have the official kernel become the main source for PCMCIA support. Until then, the best choice is to use Hinds' distribution for production systems. It includes the necessary system tools to configure the automatic loading and unloading of the appropriate PCMCIA device drivers when a card is inserted or removed from a PCMCIA slot.4. PC/104Although simple, the ISA bus is not well adapted to the rugged environments where embedded systems are deployed. The PC/104 form factor was introduced toaddress the shortcomings of ISA's mechanical specification. PC/104 provides a bus whose electrical signals are identical to those of the ISA bus, but with a different mechanical specification that is more adapted to embedded system development by providing ease of extensibility and ruggedness. Instead of using slots where cards are inserted, as in a regular ISA setup, PC/104 specifies the use of pin connectors. When PCI became popular, the PC/104+ specification was introduced to provide a PCI-signal-compatible bus as an addition to the PC/104 specification. Both PC/104 and PC/104+ are managed by the PC/104 Consortium, which includes more than a 100 member companies.The PC/104 is identical to ISA and the PC/104+ is identical to both ISA and PCI from the signal perspective and, therefore, from the software's perspective. Therefore, Linux requires no special functionality to support these buses. However, this does not mean that Linux supports all PC/104 and PC/104+ devices. As with any other ISA or PCI device, you should seek exact information about Linux compatibility with the PC/104 device you are evaluating.5. VMEThe VME bus is largely based on Motorola's VERSA backplane bus, which was developed specifically for the 68000 in 1979. At the time, VERSA was competing with buses such as Multibus, STD, S-100, and Q-bus, although it is rarely used today. Striving to provide a new bus that would be microprocessor independent, Motorola, Mostek, and Signetics agreed that the three companies would support a new bus. This came to be the VME bus based on the VERSA's electrical signals and the Eurocard mechanical form factor. In the Eurocard form factor, VME boards are loaded vertically into a VME chassis and connected to its backplane using pin connectors, unlike common computer boards that use edge connectors inserted into slots. Since its introduction, the VME bus has become widely adopted as the preferred bus for building powerful and rugged computers. One factor that has helped the VME bus' popularity is that it is an open standard that isn't controlled by any single organization.As the VME bus can accommodate multiple VME boards, each with its own CPU and OS, no central OS controls the bus. Instead, arbitration is used to permit a board to become bus master momentarily to conduct its operations. The job of Linux on a VME board is therefore to interact properly with its VME hardware interface to obtain the appropriate functionality.pactPCIThe CompactPCI specification was initiated by Ziatech and was developed by members of the PCI Industrial Computer Manufacturer's Group (PICMG), which oversees the specification and promotes the use of CompactPCI. The CompactPCI specification provides an open and versatile platform for high-performance, high-availability applications. Its success is largely based on the technical choices made by its designers. First, they chose to reuse the Eurocard form-factor popularized by VME. Second, they chose to make the bus PCI-compatible, hence enabling CompactPCI board manufacturers to reuse low-cost PCI chips already available in the mainstream market.Technically, the CompactPCI bus is electrically identical to the PCI bus. Instead of using slot connections, as found in most workstations and servers, pin connectors are used to connect the vertically loaded CompactPCI boards to the CompactPCI backplane, much like VME. As with PCI, CompactPCI requires a single bus master, in contrast with VME, which could tolerate multiple bus masters, as explained earlier. Consequently, CompactPCI requires the permanent presence of a board in the system slot. It is this board that arbitrates the CompactPCI backplane, just as a PCI chipset would arbitrate a PCI bus in a workstation or a server.In addition, the CompactPCI specification allows for the implementation of the Hot Swap specification, which describes methods and procedures for runtime insertion and removal of CompactPCI boards. This specification defines three levels of hot swapping. Each level implies a set of hardware and software capabilities. Here are the available levels and their requirements: Basic hot swapThis hot swap level involves console intervention by the system operator. When a new card is inserted, she must manually inform the OS to power it up and then configure and inform the software of its presence. To remove a card, she must tell the OS that the board is about to be removed. The OS must then stop the tasks that are interacting with the board and inform the board to shut down.Full hot swapIn contrast to basic hot swap, full hot swap does not require console intervention by the operator. Instead, the operator flips a microswitch attached to the card injector/ejector to notify the OS of the impending removal. The OS then performs the necessary operations to isolate the board and tell it to shut down. Finally, the OS lights an LED to notify the operator that the board can now be removed. On insertion, the OS carries out the inverse operations when it receives the appropriate insertion signal.High AvailabilityIn this level, CompactPCI boards are under complete software control. A hot swap controller software manages the state of all the boards in the system and can selectively reverse these individual boards according to the system's state. If a board fails, for example, the controller can shut it down and power up a duplicate board that is present within the same chassis for this very purpose. This hot swap level is called "High Availability," because it is mostly useful in what are known as high-availability applications，such as telecommunications, where downtime must be minimal.Linux accommodates the basic CompactPCI specification, through the PCI support it already provides. Support for dynamic insertion and removal of devices in Linux also exists in different forms. Primarily, Version 2.4 of the kernel includes the required kernel functionality.That said, this level of support is insufficient to accommodate all the complexities of CompactPCI systems. In addition, there are few drivers within the main kernel tree for mainstream CompactPCI boards, although CompactPCI board manufacturers may provide Linux drivers. This caveat has led to the emergence of a number of commercial solutions that provide high-availability Linux solutions on CompactPCI, including Availix's HA Cluster and MontaVista's High Availability Framework. The ongoing High-Availability Linux Project, found at :///, aims at providing the open source components needed to build high-availability solutions using Linux. The project isn't restricted to a specific hardware configuration and is, therefore, not centered around CompactPCI.In the future, we may see more open source software accommodating the various complexities of CompactPCI-based systems, both in terms of hot swap capabilities and in terms of software support for communication, resource monitoring, cluster management, and other software components found in high-availability systems. For now, however, if you want to use Linux for a CompactPCI-based high-availability application, you may need to work with one of the existing commercial solutions to obtain all the features described by the CompactPCI specification.7. Parallel PortAlthough not a bus in the traditional sense, the parallel port found in many computers can be used to connect a wide range of peripherals, including hard drives, scanners, and even network adapters. Linux support for parallel port devices is extensive, both in terms of the drivers found in the kernel and the ones providedby supporting projects. There is no central authority or project, however, that directs Linux's support for parallel port devices, since the parallel port is a ubiquitous component of computer systems. Instead, there are good resources that describe which devices are supported. These include the Hardware Compatibility HOWTO found at the LDP and the Linux Parallel Port Home Page found at :// /linux-pp.html. It is worth noting that Linux supports the IEEE1284 standard that defines how parallel port communication with external devices is carried out.As the parallel port can be used for many purposes besides attaching external devices, I will discuss parallel port programming when explaining the use of the parallel port as in an I/O interface in Section 3.3.8. SCSIThe Small Computer Systems Interface (SCSI) was introduced by Shugart Associates and eventually evolved into a series of standards developed and maintained by a series of standard bodies, including ANSI, ITIC, NCITS, and T10. Although mainly thought of as a high-throughput interface for hard drives for high-end workstations and servers, SCSI is a general interface that can be usedto connect various hardware peripherals. Only a small segment of embedded systems ever use SCSI devices, though. These systems are typically high-end embedded systems such as the CompactPCI-based high-availability systems discussed earlier.In those cases, a CompactPCI SCSI controller inserted in the CompactPCI backplane provides an interface to the SCSI devices.If you consider using SCSI in an embedded system, note that although Linux supports a wide range of SCSI controllers and devices, many prominent kernel developers believe that the kernel's SCSI code requires major work or even a complete rewrite. This doesn't mean that you shouldn't use SCSI devices with Linux.It is only a warning so that you plan your project's future updates in light of such possible modifications to the kernel's SCSI layer. At the time of this writing, work on the SCSI code has not yet started. It is expected that such work wouldbe undertaken during the 2.5 development series of the kernel. For now, the SCSI hardware supported by Linux can be found in the Hardware Compatibility HOWTO from the LDP. As with the parallel port, there is no single reference point containingall information regarding Linux's support for SCSI, since the SCSI interface isan established technology with a very large user base.Discussion of the kernel's SCSI device drivers architecture can be foundat :// /sg/, at :// /scsi.html, and in theLinux 2.4 SCSI subsystem HOWTO from the LDP. This should be the starting point for the development of any SCSI driver for Linux, along with the Linux Device Drivers book by O'Reilly. For a broad discussion about SCSI, The Book of SCSI: I/O For The Millennium by Gary Field and Peter Ridge (No Starch Press) is a good start. As with other standards, there are always official standards documents provided by the standard bodies, but again, such documentation often makes for dry reading material.9. USBThe Universal Serial Bus (USB) was developed and is maintained by a group of companies forming the USB Implementers Forum (USB-IF). Initially developed to replace such fragmented and slow connection interfaces as the parallel and serial ports traditionally used to connect peripherals to PCs, USB has rapidly established itself as the interface of choice for peripherals by providing inexpensive ease of use and high-speed throughput. Although mainly a mainstream device-oriented bus, USB is increasingly appearing in hardware used in embedded systems, such as SBCs and SoCs from several manufacturers.USB devices are connected in a tree-like fashion. The root is called the root hub and is usually the main board to which all USB devices and nonroot hubs are connected. The root hub is in charge of all the devices connected to it, directly or through secondary hubs. A limitation of this is that computers cannot be linked in any form of networking using direct USB cabling.There are also USB network adapters, including Ethernet adapters, that can be used to connect the computers to a common network.Support within Linux for behaving as a USB root hubis quite mature and extensive, comparing positively to the commercial OSes that support USB. Although most hardware vendors don't ship Linux drivers with their USB peripherals, many have helped Linux developers create USB drivers by providing hardware specifications. Also, as with other hardware components, many Linux drivers have been developed in spite of their manufacturers' unwillingness to provide the relevant specifications. The main component of Linux's support for USB is provided by the USB stack in the kernel. The kernel also includes drivers for the USB devices supported by Linux. User tools are also available to manage USB devices. The user tools and the complete list of supported devices is available through the Linux USB project web site at :// /.Support within Linux for behaving as a USB device is limited in comparison to its support for behaving as a USB root hub. While some systems running Linux,such as the iPAQ, can already behave as devices, there is no general agreed-upon framework yet for adding USB device capabilities to the Linux kernel.Development of USB drivers is covered by the Programming Guide for Linux USB Device Drivers by Detlef Fliegl, available through the Linux USB project web site. The Linux Device Drivers book also provides guidelines on how to write Linux USB drivers. There are a number of books that discuss USB, which you can find by looking at the various online bookstores. However, the consensus among developers and online book critics seems to indicate that the best place to start, as well as the best reference, is the original USB specification available online from the USB-IF.10. IEEE1394 (FireWire)FireWire is a trademark owned by Apple for a technology they designed in the late 80s/early 90s. They later submitted their work to the IEEE and it formed the basis of what eventually became IEEE standard 1394. Much like USB, IEEE1394 enables devices to be connected using simple and inexpensive hardware interfaces. Because of their similarities, IEEE1394 and USB are often considered together. In terms of speed, however, it is clear that IEEE1394's architecture is much more capable than USB of accommodating throughput-demanding devices, such as digital cameras and external hard drives. Recent updates to the USB standard have reduced the gap, but IEEE1394 still has a clear advantage in regards to currently existing high-throughput devices and future capabilities. Although only a small number of embedded systems actually use IEEE1394, it is likely that the need for such a technology will increase with the demand in throughput.In contrast to USB, IEEE1394 connections do not require a root node. Rather, connections can be made either in a daisy-chain fashion or using an IEEE1394 hub. Also, unlike SCSI, connections do not need any termination. It is also possible to connect two or more computers directly using an IEEE1394, which isn't possible with USB. To take advantage of this capability, there is even an RFC specifying how to implement IP over IEEE1394. This provides an inexpensive and high-speed network connection for IEEE1394-enabled computers.Linux's support for IEEE1394 isn't as extensive as that provided by some commercial OSes, but it is mature enough to enable the practical, every day use of quite a number of IEEE1394 hardware devices. The kernel sources contain the code required to support IEEE1394, but the most up-to-date code for the IEEE1394 subsystem and the relevant user utilities can be found at the IEEE1394 for Linux project web site at :// /. The list of supported devices canbe found in the compatibility section of the web site. The number and types of devices supported by Linux's IEEE1394 can only increase in the future.Support for running an IP network over IEEE1394 in Linux is currently in its infancy. In due time, this may become a very efficient way of debugging embedded Linux systems because of the quantity of data that can be exchanged between the host and the target.Documentation on how to use the IEEE1394 subsystem under Linux with supported hardware can be found on the IEEE1394 for Linux project web site. The web site also includes links to documentation regarding the various specifications surrounding IEEE1394. The main standard itself is available from the IEEE and is therefore expensive for a single individual to purchase. Although the standard will be a must for any extensive work on IEEE1394, the FireWire System Architecture book by Don Anderson (Addison Wesley) is a good place to start.11.GPIBThe General-Purpose Interface Bus (GPIB) takes its roots in HP's HP-IB bus, which was born at the end of the 1960s and is still being used in engineering and scientific applications. In the process of maturing, GPIB became the IEEE488 standard and was revised as late as 1992. Many devices that are used for data acquisition and analysis are, in fact, equipped with a GPIB interface. With the advent of mainstream hardware in this field of application, many GPIB hardware adapters have been made available for such mainstream hardware and for PCs in particular.GPIB devices are connected together using a shielded cable that may have stackable connectors at both ends. Connectors are "stackable" in the sense that a connector on one end of a cable has the appropriate hardware interface to allow for another connector to be attached to it, which itself allows another connector to be attached. If, for instance, a cable is used to connect a computer to device A, the connector attached to A can be used to attach the connector of another cable going from A to device B.12. I2CInitially introduced by Philips to enable communication between components inside TV sets, the Inter-Integrated Circuit (I2C) bus can be found in many embedded devices of all sizes and purposes. As with other similar small-scale buses such as SPI and MicroWire, I2C is a simple serial bus that enables the exchange of limited amounts of data among the IC components of an embedded system. There is a broad range of I2C -capable devices on the market, including LCD drivers, EEPROMs, DSPs, and so on. Because of its simplicity and its hardware requirements, I2C can beimplemented either in software or in hardware.Connecting devices using I2C requires only two wires, one with a clock signal, serial clock (SCL), and the other with the actual data, serial data (SDA). All devices on an I2C bus are connected using the same wire pair. The device initiating a transaction on the bus becomes the bus master and communicates with slaves using an addressing scheme. Although I2C supports multiple masters, most implementations have only one master.The main kernel tree includes support for I2C, a number of devices that use I2C, and the related System Management Bus (SMBus). Due to the heavy use of I2C by hardware monitoring sensor devices, the I2C support pages are hosted on the Linux hardware monitoring project web site at ://www2.lm-sensors.nu/~lm78/. The site includes a number of links, documentation, and the most recent I2C development code. Most importantly, it contains a list of the I2C devices supported along with the appropriate driver to use for each device.中文翻译稿应用技术学院06计算机（0616403062）管玲玲2010年2月总线和接口总线和接口是连接CPU到系统的部分外设的组织。