Teaching Systems Integration In An Advanced Microprocessor Applications Course
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为教联体建设提供了指导意见英语作文Provided Guiding Suggestions for the Construction of Education and Industry AllianceEducation and industry alliance is a critical part of promoting the integration of education and economy. As a member of the Alliance, I am honored to provide some guiding suggestions for the construction of the education and industry alliance.First, strengthen the links between education and industry. Educational institutions should take an active role in providing students with practical training opportunities, such as internships and job shadowing, to ensure that students are well-equipped with professional skills that meet the demands of the industry. Meanwhile, the industry should participate in curriculum design and teaching activities, which helps to bridge the gap between the education and enterprise, and enrich the teaching content.Second, optimize the allocation of resources. Resources should be allocated in a way that benefits all parties involved, including enterprises, university and students. For example, industry experts could be invited to give lectures or seminars for students in educational institutions, and scholarships or subsidies could be provided to excellent students.Third, establish a sound system for education and industry cooperation. A sound system that includes regular communication, regular meetings, and coordination mechanisms can ensure that the education and industry sectors stay abreast of the latest information and can address problems and conflicts in a timely manner. The local government should play a guiding role in setting up the system and creating an environment that fosters cooperation.In conclusion, the construction of the education and industry alliance requires joint efforts from all parties. Strengthening links between education and industry, optimizing resource allocation, and establishing a sound system for cooperation are the ways in which the alliance can be promoted. I believe that through joint efforts, the education and industry alliance will make great contributions to the revitalization of the economy and the overall development of society.。
Four Types of Automated Instructional Design Tools Expert System An An expert expert expert system system system contains contains contains a a a domain-specific domain-specific domain-specific knowledge-base knowledge-base and performs decision-making and analysis functions for the designer using natural language queries. Expert systems for instructional design have been developed to provide advice to novice instructional designers and to facilitate the development process for experienced designers. ID ID Expert Expert Expert from from from the the the ID2 ID2 ID2 Research Group was created to develop Research Group was created to develop and deliver computer-based instruction more efficiently. ID Expert is based based on on on Instructional Instructional Instructional Transaction Transaction Transaction Theory, Theory, Theory, a a a ““second second generation generation generation””theory of instructional design. According to Instructional Transaction Theory, Theory, instruction instruction instruction is is is based based based on on on transactions transactions transactions (sets (sets (sets of of of interactions) interactions) between between the system and the learner in order the system and the learner in order to accomplish a g iven given task. ID Expert assists designers in creating transactions by presenting presenting a a a set set set of of of decision-making decision-making decision-making steps steps steps involving involving involving instructional instructional components, components, formatting, formatting, formatting, resources, resources, resources, etc. etc. etc. ID ID ID Expert Expert Expert is is is considered considered considered a a prototype system and has not yet been released commercially. The United States Air Force Armstrong Laboratory proposed two AID approaches that use expert system technology to provide expertise to novice instructional designers and subject matter experts in the design, production, and implementation of courseware used in Air Force training. Guided Approach to Instructional Design Advising Advising (GAIDA) (GAIDA) (GAIDA) uses uses uses tutorials tutorials tutorials and and and context-specific context-specific context-specific advice advice advice and and examples. Experiment Advanced Instructional Design Advisor (XAIDA) (XAIDA) uses uses uses the the the Instructional Instructional Instructional Transaction Transaction Transaction Theory Theory Theory framework framework framework to to encapsulate context-specific knowledge. Both of these environments are are results results results of of of the the the Advanced Advanced Advanced Instructional Instructional Instructional Design Design Design Adviser Adviser Adviser (AIDA) (AIDA) research project. Reactions to Expert Systems: While expert systems for the instructional instructional design design design can can can teach teach teach theory theory theory validation validation validation and and and function function function as as authoring tools, they are limited by their inability to support analysis and design tasks. ID expert systems attempt to control the instructional design process, a process involving a large number of interrelated elements, and so must rely heavily on the knowledge and experience of the individual practitioner. Several instructional technologists technologists have have have proposed proposed proposed systems systems systems that that that more more more subtly subtly subtly advise advise advise the the instructional designer, rather than prescribe a set of solutions. Advisory Systems Duchastel Duchastel challenges challenges challenges the the the expert expert expert system system system model model model by by by providing providing providing an an advisory advisory system system system model. model. model. Instead Instead Instead of of of controlling controlling controlling the the the problem-solving problem-solving process process with with with expert expert expert knowledge, knowledge, knowledge, advisory advisory advisory systems systems systems assist assist assist or or or coach coach users users in in in accomplishing accomplishing accomplishing a a a given given given task. task. task. A A A prototype prototype prototype for for for the the the advisory advisory system approach is the Instructional Design Advanced W orkbench, Workbench, architecture for a computer-based workbench that supports the cognitive cognitive tasks tasks tasks of of of instructional instructional instructional design design design without without without constraining constraining constraining the the designer. Information Management System Instructional Instructional Design Design Design Environment Environment Environment (IDE) (IDE) (IDE) from from from the the the Institute Institute Institute for for Research on Learning is a computer-aided design environment that supports supports an an an ID ID ID methodology methodology methodology for for for teaching teaching teaching the the the use use use of of of software software software in in real-life problem-solving contexts. I DE IDE IDE helps document design and helps document design and development development options. options. options. It It It is is is intented intented intented for for for experienced experienced experienced instructional instructional designers. Electronic Performance Support Systems Electronic performance support system (EPSS) are self-instructional self-instructional electronic electronic electronic environments environments environments that that that provide provide provide process process process to to “software, guidance, advice, data, tools, and assessment with minimum minimum support support support and and and intervention intervention intervention by by by others others others””. . EPPS EPPS EPPS have have have become become popular in the 1990s for business and education contexts that require “just-in-time just-in-time”” learning learning and and and a a a hign hign hign level level level of of of a a a particular particular particular skill. skill. skill. Some Some example of EPSS are listed below. Building on Duschastel’s “workbench,workbench,”” Paquette et al introduced a a performance performance performance support support support system system system called called called AGD AGD AGD (a (a (a French French French acronym acronym meaning Didactic Engineering W orkbench). AGD provides procedural procedural instructional instructional instructional design design design information information information to to to guide guide guide users users users difining difining the learning system (e.g., amount and nature of objectives). Other performance support systems tools include Designer’s Edge (Figure 13-1) from Allen Communication and Instructional DesignW are are from from from Langevin Langevin Langevin Learning Learning Learning Services Services Services (Langevin (Langevin (Langevin Learning Learning Services). Services). Like Like Like AGD, AGD, AGD, these these these tools tools tools support support support the the the planning planning planning phases phases phases of of instructional instructional design, design, design, but but but contain contain contain a a a much much much more more more general general general advisory advisory component (e.g., context-specific online help, wizard, and tutorials). In contrast to AGD, Designer Designer’’s Edge and Instructional DesignW are lead designers through all tasks involved in instructional design, but place more emphasis on the ultimate production phase. Both tools provide graphical representation of the instructional systems design model, thus leading to additional support for completing each step of the model. Data entered by users are are cross-referenced cross-referenced cross-referenced with with with all all all steps steps steps to to to enhance enhance enhance continuity continuity continuity between between phases. Usable reports and documents such as evaluation instruments, instruments, content content content outlines, outlines, outlines, lesson lesson lesson plans, plans, plans, and and and checklists checklists checklists can can can be be generated by the users. The The primary primary primary difference difference difference between between between the the the two two two products products products lies lies lies in in in their their intented audiences and purposes. Designer ’s Edge is for both novice and and experienced experienced experienced instructional instructional instructional designers designers designers planning planning planning computer-based computer-based instruction. The product includes support for scripts, storyboards and other other CBI CBI CBI production production needs. needs. Integration Integration Integration with with with external external external software software applications is also supported. Instructional Design W are is intented for for course course course designers designers designers and and trainers trainers interested interested interested in in producing producing either either computer-based or classroom training. For this reason ,more suppot is provided for decisions regarding media selection and course and presentation materials (Langevin Learning Services). 自动化教学设计工具的四种类型自动化教学设计工具的四种类型专家系统专家系统包括了一个特定领域的知识库和为设计师使用自然语言查询的执行决策分析功能。
ai在教育领域的应用英语作文The Application of AI in the Field of EducationArtificial intelligence (AI) has been rapidly transforming various industries, and the field of education is no exception. As technology continues to advance, the integration of AI in the educational landscape has become increasingly prevalent, offering a wide range of benefits and opportunities for both students and educators.One of the primary ways AI is being utilized in education is through personalized learning. AI-powered adaptive learning systems can analyze student performance, learning styles, and preferences to tailor the educational content and delivery to the individual needs of each student. This personalized approach allows students to progress at their own pace, focusing on areas where they need more support, while also challenging them in subjects they excel in. By catering to the unique learning requirements of each student, AI-driven personalized learning has the potential to significantly improve academic outcomes and engagement.Another area where AI is making a significant impact in education is in the realm of assessment and feedback. AI-powered gradingsystems can analyze student work, provide detailed feedback, and even suggest areas for improvement. This not only reduces the workload for educators but also ensures more timely and consistent feedback, which is crucial for student growth and development. Furthermore, AI-based assessment tools can identify patterns and trends in student performance, enabling educators to make data-driven decisions and adapt their teaching strategies accordingly.In addition to personalized learning and assessment, AI is also being utilized to enhance the overall learning experience. AI-powered virtual tutors and chatbots can provide students with on-demand support and guidance, answering questions, clarifying concepts, and offering additional resources. These intelligent systems can operate 24/7, ensuring that students have access to the help they need whenever they need it. Moreover, AI-driven virtual simulations and interactive learning environments can immerse students in engaging and hands-on learning experiences, fostering a deeper understanding of complex topics.Beyond the classroom, AI is also being leveraged to streamline administrative tasks and improve the efficiency of educational institutions. AI-powered tools can automate tasks such as scheduling, student record management, and resource allocation, freeing up educators to focus on their primary responsibilities of teaching and supporting student success. Additionally, AI-driven data analytics canprovide valuable insights into student enrollment, attendance patterns, and resource utilization, enabling administrators to make more informed decisions and optimize the overall educational ecosystem.The integration of AI in education also holds the potential to address the challenges posed by the COVID-19 pandemic. As the world grappled with the shift to remote and hybrid learning, AI-powered technologies have played a crucial role in facilitating seamless virtual instruction, enhancing student engagement, and supporting the continuity of education. Virtual classrooms, online collaboration tools, and AI-driven personalized learning platforms have become essential components of the new educational landscape, ensuring that students can continue their academic journeys despite the disruptions caused by the pandemic.However, the implementation of AI in education is not without its challenges. Ethical considerations, such as data privacy, algorithmic bias, and the potential displacement of human teachers, must be carefully addressed. Policymakers, educators, and technology developers must work together to establish robust frameworks and guidelines to ensure the responsible and equitable deployment of AI in educational settings.Despite these challenges, the potential benefits of AI in educationare undeniable. As the technology continues to evolve and become more sophisticated, the integration of AI in the educational sector is poised to transform the learning experience, improve student outcomes, and pave the way for a more personalized, efficient, and engaging educational system. By embracing the power of AI, educators can unlock new possibilities and empower students to reach their full potential in the 21st century.。
英文abstract范文Title: The Impact of Technological Innovations on Modern Education Systems.Abstract:The present study delves into the profound influence of technological advancements on modern education systems, exploring both the opportunities and challenges they pose. The analysis begins by tracing the historical evolution of educational technology, from the advent of the printing press to the current era of digital transformation. This progression has reshaped the landscape of education, making learning more accessible, interactive, and personalized.The emergence of digital tools and platforms has revolutionized teaching methods, allowing instructors to engage students through interactive lectures, simulations, and online discussions. The use of learning analytics and artificial intelligence (AI) further enhances thepersonalization of learning experiences, as they enable teachers to tailor their approaches to individual student needs and preferences. These technological advancements have also expanded the reach of education, breaking down geographical barriers and connecting learners from diverse backgrounds.However, the integration of technology into education systems has not been without its challenges. Onesignificant concern is the digital divide, which refers to the unequal access to technology and its associated resources among different social and economic groups. This divide can exacerbate existing educational disparities, limiting the potential of technological advancements to transform education for all.Moreover, the widespread use of digital tools raises concerns about privacy and security. The collection and analysis of personal data, while essential for personalized learning, must be balanced with the need to protect student privacy. Additionally, the ethical implications of AI-powered decision-making in education, such as automatedgrading and admissions processes, must be carefully considered.Despite these challenges, the potential of technological innovations to improve education systems remains significant. The future of education lies in harnessing the power of technology to create inclusive, equitable, and innovative learning environments that cater to the diverse needs of students. To achieve this, it is crucial to address the digital divide, prioritize data privacy and security, and ensure ethical implementation of AI and other emerging technologies.The present study contributes to the ongoing discussion about the role of technology in education by providing a comprehensive analysis of its impacts and implications. It offers insights into the opportunities and challenges presented by technological advancements, highlighting the need for a balanced approach that addresses both the potential benefits and risks associated with theintegration of technology into modern education systems.。
ai技术在英语课堂中的应用With the rapid development of artificial intelligence (AI) technology in recent years, its application in education has also gained increasing attention. In particular, the integration of AI technology into the English classroom has shown great potential to enhance student learning and facilitate more personalized teaching.One of the key ways AI is being used in the English classroom is through intelligent tutoring systems. These systems are able to provide students with personalized learning experiences based on their individual needs and progress. For example, AI-powered language learning platforms can analyze students' language skills through tasks and exercises, and then tailor their learning content and pace accordingly. This not only helps to identify areas where students may be struggling, but also provides targeted support and feedback to help them improve.Another way AI is being integrated into the English classroom is through the use of language processing tools. These tools can help students to improve their writing skills by providing real-time feedback on their grammar, vocabulary, and style. For instance, AI-powered writing assistants can highlightgrammatical errors, suggest synonyms for repetitive words, and even provide tips on how to improve sentence structure. This not only helps students to become more aware of their writing habits, but also enables them to make immediate improvements to their work.Furthermore, AI technology is also being used to create more interactive and engaging learning experiences in the English classroom. Virtual reality (VR) and augmented reality (AR) tools, for example, can transport students to differentEnglish-speaking countries or historical periods, allowing them to experience the language in a more immersive way.AI-powered chatbots and voice recognition software can also provide students with opportunities to practice their speaking and listening skills in a more natural and interactive manner.Overall, the application of AI technology in the English classroom has the potential to revolutionize the way in which students learn and teachers teach. By providing personalized learning experiences, real-time feedback, and interactive activities, AI technology can help to improve students' language skills, increase their motivation and engagement, and ultimately, enhance their overall learning outcomes. As AI continues to advance and evolve, it will be exciting to see how it furthertransforms the English classroom and the way in which students and teachers interact with the language.In conclusion, the integration of AI technology in the English classroom represents a promising development in the field of education. By harnessing the power of AI to provide personalized learning experiences, real-time feedback, and interactive activities, students can benefit from more effective and engaging language learning experiences. As such, it is essential for educators to embrace and continually explore the possibilities that AI technology offers in order to enhance the teaching and learning of English.。
教育体系改进英语作文高中英文回答:The educational system in high school can be greatly improved by implementing various effective strategies.1. Focus on Communication-based Learning:Emphasizing communication-based learning allows students to develop their fluency and confidence in using English. This can be achieved through group discussions, presentations, role-playing, and interactive exercises. By engaging in real-life language scenarios, students can improve their listening, speaking, reading, and writing skills.2. Utilize Technology for Enhanced Learning:Integrating technology into the curriculum enhances the learning experience and makes it more engaging. Languagelearning apps, online games, and virtual reality simulations provide immersive and interactive ways to practice language skills. Technology also enables personalized learning, allowing students to progress at their own pace and focus on areas where they need improvement.3. Encourage Reading and Writing for Fluency:Regular reading and writing practice helps students expand their vocabulary, improve their grammar, and enhance their communication skills. Encourage students to read various literary forms, such as novels, short stories, and articles. Promote creative writing assignments that allow them to express their thoughts and ideas effectively.4. Provide Differentiated Instruction:Accommodate diverse learning styles and abilities by providing differentiated instruction. Offer tailored activities and support to meet the needs of struggling students. Provide enrichment opportunities for advancedstudents to challenge themselves and extend their learning. By recognizing individual differences, an inclusive learning environment can be fostered.5. Foster Collaboration and Peer Support:Create opportunities for students to collaborate and learn from each other. Peer-to-peer interaction encourages them to share knowledge, ideas, and experiences. Group projects, study sessions, and online discussion forums promote teamwork, critical thinking, and problem-solving skills.6. Encourage Cultural Immersion:Expose students to the diverse cultures and perspectives of the English-speaking world. Incorporate cultural elements into the curriculum, such as literature, art, music, and film. Encourage students to interact with native speakers or participate in exchange programs to enhance their understanding and appreciation of different cultures.7. Train Teachers for Enhanced Proficiency:Invest in training teachers to develop their English language proficiency and pedagogical skills. Provide ongoing professional development opportunities to equip teachers with the latest methodologies and techniques for effective language teaching. Teachers should be proficient in using technology and creating an inclusive learning environment.中文回答:如何改善高中英语教育体系。
高二英语科技发展与人类生活变化探讨练习题50题1.With the development of technology, people's travel has become more convenient. Now we can go anywhere in a short time _____.A.by planeB.by trainC.by busD.on foot答案:A。
解析:随着科技发展,人们可以在短时间内去任何地方,飞机速度最快,能在短时间内到达较远的地方。
by train 和by bus 速度相对较慢,on foot 速度最慢,不符合在短时间内去任何地方的表述。
本题主要考查出行方式的介词搭配及对不同交通方式特点的理解。
2.Technology has brought great changes to transportation. Which one is NOT a new transportation mode brought by technology?A.Self-driving carsB.High-speed trainsC.Horse-drawn carriagesD.Drones for delivery答案:C。
解析:科技带来的交通变革中,自动驾驶汽车、高速列车、用于配送的无人机都是新技术带来的新交通方式。
而马车是传统的交通方式,不是科技带来的新交通方式。
本题考查对科技带来的新交通方式的认识,涉及词汇理解。
3.Because of technological progress, people can now plan their trips more efficiently. They can use _____ to check traffic conditions and choose the best route.A.mobile phonesB.dictionariesC.camerasD.notebooks答案:A。
英文回答:The responsibilities and role of the Integrated Systems Project Management Engineer in chapter II of the third edition of the Academy of Systems Integrated Project Management Engineers are an integral part of project management。
Work elements such as project planning, implementation and closure address related concepts and methods such as project management knowledge systems, integration management, scope management and time management。
Attention also needs to be given to detailed explanations in the areas of cost management, quality management, human resources management andmunication management。
By learning the content of this chapter, the reader will gain aprehensive understanding of the work responsibilities and project management fundamentals of the integrated project management engineers of the system and will provide a solid basis for future practical work to better serve the routes,guidelines and policies of the party and the country。
第1篇In the ever-evolving field of education, the teaching of English has become more dynamic and diverse. Traditional methods of teaching, while effective in many aspects, are being complemented and sometimes replaced by innovative practices that cater to the needs of the 21st-century learner. This article explores various forms of English实践教学,highlighting their effectiveness and potential challenges.1. Blended LearningBlended learning combines traditional classroom instruction with online resources and technology. This approach allows students to engage with the language in multiple ways, both inside and outside the classroom. Here are some key aspects of blended learning in English teaching:Online Platforms: Utilizing online platforms like Blackboard, Moodle, or Google Classroom, teachers can create interactive lessons, assign homework, and facilitate discussions. These platforms also enable students to access materials and resources at their own pace.Interactive Tools: Incorporating interactive tools such as quizzes, polls, and videos can enhance student engagement and motivation. For example, teachers can use Kahoot! or Quizizz to create fun and interactive quizzes.Flipped Classroom: In a flipped classroom, students watch instructional videos or read materials at home, and then use class time for activities like discussions, group work, or project-based learning. This approach allows for more personalized learning and encourages students to take ownership of their education.Collaborative Learning: Blended learning encourages collaboration among students through online forums, discussion boards, and group projects. This fosters critical thinking and problem-solving skills, as well as communication and teamwork.2. Project-Based Learning (PBL)Project-based learning involves students in real-world, inquiry-driven activities that promote deep understanding and application of the language. Here are some examples of PBL in English teaching:Community Service Projects: Students can engage in community service projects, such as organizing a fundraising event or creating a public service announcement, and use English to communicate with stakeholders and document their work.Cultural Exchange Programs: Pairing students with peers from different countries can facilitate cultural exchange and language practice. Students can collaborate on projects that explore their respective cultures and share their experiences.Research Projects: Students can conduct research on a topic of interest and present their findings in English, using various forms of media, such as presentations, videos, or podcasts.Capstone Projects: At the end of a course or program, students can create a capstone project that demonstrates their mastery of the language and subject matter. This could involve creating a website, writing a research paper, or developing a multimedia presentation.3. GamificationGamification involves incorporating game-like elements into educational activities to increase engagement and motivation. Here are some ways to gamify English teaching:Point Systems: Assigning points for completing tasks, participating in discussions, or demonstrating language proficiency can create a sense of competition and encourage students to strive for excellence.Badges and Rewards: Awarding badges or rewards for reaching certain milestones can provide students with a sense of accomplishment and motivate them to continue learning.Leaderboards: Creating leaderboards to track student progress canfoster healthy competition and encourage students to challenge themselves.Game-Based Learning: Using educational games, such as language learning apps or online platforms like Duolingo, can make learning English fun and interactive.4. Technology IntegrationIntegrating technology into English teaching can enhance student engagement and provide access to a wealth of resources. Here are some examples of technology integration:Interactive Whiteboards: Using interactive whiteboards allows teachers to create dynamic lessons that engage students and facilitate collaboration.Laptops and Tablets: Providing students with laptops or tablets can enable them to access online resources, complete assignments, and participate in virtual discussions.Podcasts and Videos: Incorporating podcasts and videos into lessons can provide authentic examples of the language in use and expose students to different accents and dialects.Social Media: Using social media platforms like Twitter, Facebook, or Instagram can help teachers connect with students and share resources, as well as facilitate communication and collaboration.5. Language ImmersionLanguage immersion involves immersing students in an environment where the target language is the primary means of communication. This can be achieved through various means:Field Trips: Organizing field trips to places where English is spoken can provide students with authentic language experiences and cultural insights.Exchange Programs: Participating in exchange programs with schools in English-speaking countries can allow students to practice the languagein a real-world context.Language Immersion Programs: Enrolling students in language immersion programs, such as those offered by some schools or educational institutions, can provide them with an immersive language experience.ConclusionIn conclusion, English实践教学形式多种多样,旨在提高学生的学习兴趣、培养他们的语言能力,并帮助他们更好地适应21世纪的社会需求。
商务英语常用单词和短语A contact phone number 联系A couple of 一些A direct flight 直飞航班A four-star hotel 四星级宾馆A full membership 正式会员A passing fashion 过时的款式A pot of coffee 一壶咖啡A temporary replacement 临时顶班Accessory n. 附件Accommodation n. 住宿Accompany v. 陪伴Accomplish v. 实现Account number 帐号Accountancy 会计工作Accountant 会计Accounting 会计工作,清算帐目Accounts Department 财务部Achieve v. 完成,取得Acoustics n. 音响效果Adequate adj. 足够的Advertising n. 广告Agenda n. 日程安排Agree on 同意Air letter 航空信Airport gift shop 机场礼品商店Alarm system 警报系统Alliance n. 联合Alternative n. 选择Ambition n. 理想,抱负Amendment n. 改正An associate membership 附属会员Analysis 分析Applicant 申请人Apprentice n. 学徒Approach n. 方法Approach v. 接近Aptitude n. 能力Arguably adv. 可争辩的Aspect n. 方面Aspirin n. 阿司匹林Assembly line 生产线Assess v. 评估Assessment n. 评估Assume v. 假定为Attach v. 贴上Attendance n. 出席Attitude n. 态度Audience n. 听众Audit v. 审核Autonomous 对什么负责Available adj. 可以弄到的,可以做到的Awkward adj. 尴尬的Backlog n. 积压未处理之事Badminton n. 羽毛球Balance n. 天平Balcony n. 阳台Batch n. 一批,一组Be familiar with 对什么熟悉Be flattered 高兴,得意Be free from 没有什么的Be involved 卷入Be keen on 喜欢Be responsible forBear no relation with 和;;;没有关系Bet v. 打赌Boardroom 董事会会议室Booking reference 预定记录Booklet 小册子Bottom 底端Bowling n. 保龄球Brake n. 刹车Brand image 品牌形象Break down 把总数分目Break up 中断Breakdown n. 分类Bring down 降低Broad adj. 广泛的,广义的Brochure n. 小册子Budget n. 预算Business associate 商业合作伙伴Business class 商务舱Business objective 商业目标Businesslike adj. 有条不紊By all means 好的,当然可以Calculator n. 计算器Campaign n. 运动Carry-on n. 继续Case study 案例研究Cash card 现金卡Cash flow 资金流动Cash machine 提款机Cashier n. 收银员Catalogue 产品目录Cater for 包办宴席,供应伙食Centimeter n. 厘米Certificate n. 证书Chain 连锁店Chair v. 主持Character n. 文字Chat n. v. 聊天Check-out 收银台Clause n. 条款Client n. 客户Collaboration 合作Collection n. 搜集Combination n. 组合Come out 总计,共达Comedy n. 喜剧Commerce 商业Commission n. 佣金Companion 同伴Company profile 公司介绍Compatible adj. 可兼容的Competition n. 竞争Competitive 竞争的Competitor n. 竞争对手Complicated adj. 复杂的Comply 遵守Component 零部件Comprehensive adj. 全面的Computer discs 电脑磁盘Computer package 电脑软件包Computer-aided adj. 计算机辅助的Concession 让步Confidential adj. 机密的Confirmation n. 确认Connect v. 连接Connection n. 连接Consequence n. 结果Considerably adv. 很,颇,相当Consist of 由什么组成Constrain n. 约束Consultant n. 顾问Consultation n. 咨询Container n. 集装箱Continuously adv. 连续的Contract 合同Contribute to 有助于Controversy n. 争议,争论Convenience n. 便利Convenient adj. 便利Convince v. 使信服Cooker n. 烹饪器具Cookery n. 烹调Correspondence n. 通信,信件Corridor n. 走廊Corrosion testing 抗腐蚀性测试Counterpart n. 相互对应的人或物Countersign v. 副署,联署Courier n. 送信件的人Courier service 特派服务Credit n. 信用贷款Credit card 信用卡Criminal n. 罪犯Cuisine 烹调Current account 活期帐户Currently adv. 目前的Curriculum vitae 履历Cut back 削减Cycle v. 骑自行车Deadline n. 截止日期Debit v. 贷, 借出Debit card 借记卡Definition n. 定义Deliver 送货Delivery 送货Demonstration n. 展示Dental adj. 牙科的 ,牙医的Deposit account 定期帐户Destination 目的地Destination 终点Dimension n. 尺寸Diploma 证书Direct selling 直销Discipline v, n. 纪律Discount n. 折扣Discount 折扣Discreet adj. 考虑周到的Dishwasher n. 洗碗机Dispatch v. 发货Distributor n. 分销商DIY Do-It-Yourself 的缩写Document n. 文件Door-to-door service 上门服务Double check 再次确认Downturn n. 下降Downturn 下降趋势Draft n. 草稿Durable adj. 耐用的Ease n. 安逸,舒适Economical class 经济舱Economics n. 经济学Education sector 教育部门Electronic circuit 集成电路Electronic 电子的Eliminate v. 消除Elitist 杰出人物的一个Emergency repair n. 紧急维修Employ v. 雇佣Enlarge v. 放大Ensure v. 保证Ensure 保证Entertainment n. 娱乐Established 建立的Exceptional adj. 条件优越的Exchange rate 汇率Exclusively adv. 专门的Executive adj. 行政的Executive n. 行政人员Executive committee 主管人员会议Exist v. 存在Expand v. 扩大Expand v. 扩展Expectation n. 期盼Expenditure n. 开支Experienced 有经验的Expire v. 到期,届满Extension n. 延伸Extra adj. 额外的Extract v. 抽出Extremely adv 非常的Eye-catching adj. 引人注目Facility n. 设施Fashionable adj. 流行的Fatigue n. 疲劳Fatigue test 抗疲劳度测试Feat n. 功勋,功绩Feedback n. 反馈Filing n. 整理文档Filling station 加油站Finalize 最后定下来Financial manager 财务经理Financial statement 财务报表Fire drill 消防演习Fit sb in 安排时间见某人Fix up 安排Flat out 以最快速度,倾全力Flexing n. 弯曲Footwear n. 鞋类商品For the benefit of 为了;;;的利益Formally adv. 正式的Frequent adj. 经常的Garage n. 车库Gasoline n. 汽油Genuinely adv. 真心的Geographical adj. 地域的,地理的Go head 着手Go up 上涨Graphics 制图Gross adj. 全部的,总计的Group v. 把;;;分组Guarantee v. 保证Guest speaker 客座发言人Hand over 移交Handle v. 处理Hang around 逗留,闲逛Hang up 挂Hanging adj. 悬挂的Harbor n. 港口Harness v. 利用Have an account with 在某处有帐号Hazard n. 危险,公害Headphone n. 耳机High flier 出类拔萃的人Higher-up 上司High-street 商业街的大街Holdings n. 持有的股份Hold-up 阻塞, 停滞Hourly rate 每小时的报酬Humanitarian adj. 人道的I don’t suppose 我认为…不I reckon 我认为Ideally adv. 理想的Identity n. 辨认Identity card 身份证Ignore v. 忽视, 忽略Illustration n. 插图,图表In advance 提前In case 万一In fashion 流行,时髦In particular 特别,尤其是In the post 邮寄In theory 从理论上说In touch 保持联系Incentive n. 动机,诱因Income n. 收入Inconvenient adj. 不方便Independence 独立Individual adj. 个人的Individual adj. 个体的Indoor football 室内足球In-house schemes 公司内部的培训计划Initial 首字母,首先的Initially adv. 开始时Initiative n. 主动性Injection n. 注射Injury n. 伤害Innovative 创新的Installation n. 安装Installment n. 安装Institution n. 公共设施Instruction manuals 产品使用说明书Integration n. 综合Intensively adv. 集中的Interact with 同;;;交流Internal adj. 内部的Internal mail 内部邮件Interpreter n. 口译Invoice 发票Involve 包括,包含Irradiate v. 照耀Isle n. 走廊Issue n. 一期刊物Issue n. 问题IT information technology 信息产业Itching adj. 痒的Jazz n. 爵士乐Keyboard n. 键盘Kitchenware 厨房用具Label v. 把…贴上标签Laser printer 激光打印机Launch v. 发起,开办Laundry n. 洗衣店Lay out 设计,编排版面Layout n. 版面设计Lease n. 出租Leave… open-ended 在时间或时段上留有余地Leisure facility 娱乐设施Letter of application 申请书Life insurance 人身保险Likely adj. 可能的Line manager 部经理门Logo n. 徽志Look fit and healthy 看上去健康的Loudspeaker n. 扩音器Loyalty n. 忠诚Mail order 邮购订购Mail-order business 邮购业务Maintenance Department 维修部门Maintenance 维修Make n. 品牌Make a note of 把什么记下来Make an entry 把…记入Make both ends meet 使收支平衡Managing Director 总经理Manipulation n. 操纵Manual adj. 手工的Manufacture v. 生产Marital status 婚姻状况Market share 市场份额Match 与;;;相配Matinee 日场演出MD Managing Director 的缩写总经理Measure v. 丈量Media analyst 传媒分析师Medical evidence 医学证明Medium-sized adj. 中型的Medium-sized 中型的Memory button 存储键Men swear n. 男士用品Menu n. 菜单Metro n. 地铁Microphone n. 扩音器Minibus 小巴Mini-business 小生意Minor adj. 轻微的,不重要的Mirror n. 镜子Mobile phone 移动Modular courses 由几个部分组成的课程Molding n. 模制Motivate 促动,激发Motorway n. 高速公路Move up 提升,上升Multi-national 跨国公司Muscular tension 肌肉紧张Nationality 国籍Neglect n. 忽视Network n. 网络Non-profit adj. 非赢利的Non-resident adj. 非居留的Note down 记下Notice n. 通知Notify v. 通知Nuisance n. 讨厌的事Objective n. 目标Office stationary 办公用品On average 平均On four weeks ‘notice 辞职前的四星期的通知On offer 提供On second thought 转念一想On the board 董事会On the guarantee 在保修期内On the waiting list 在后选人之列Ongoing adj. 进行中的Operating division 运作部门Operating manual 操作手册Opt for 选择Optimistic adj. 乐观的Option n. 选择Originally adv. 最初Out of date 过期Outgoing n. 支出Outstanding adj. 未付款Overall adj. 全部的Overcrowded adj. 过于拥挤的Overseas adv. 海外的Owe v. 欠钱Pack n. 包Package n. 包裹Palm n. 手掌Panic n. 恐慌Paper handkerchief 纸巾Particular adj 尤其Partition n. 隔开物Part-time 零工Pass on 传递Password 密码Pay off 盈利Pencil sth in. 用铅笔记下来Pension scheme 养老金计划Pensioner 靠养老金过活的人Percentage n. 百分比Performance n. 表现Performance report 业绩报告Permanent adj. 永久的Personal quality 个人品质Personality n. 个性Personnel file 人事档案Philosophy n. 哲学Photocopier n. 复印机Photocopier n. 影印机Pick up sb 用车接送某人Pick up 恢复,变好Player n. 商家Plug in 把…插入Policy making 政策制定Portable adj. 手提的Precisely adv. 准确的Preconceived adj. 预想Predict v. 预见Preliminary adj. 初步的Premises n. 办公用房Presentation n. 介绍,陈述Pressure n. 压力Presume律师Prevent v. 预防Previously adv. 在以前Prime adj. 重要的Printer paper 打印纸Prioritizing n. 优先,重点Priority n. 优先考虑的事情Private sector 私人企业Probation period 试用期Procedure n. 程序Product launch 产品发布Production capability 生产能力Programme n. 节目Progress n. 进步Promising adj. 有希望的PromotePromotion n. 提升Promotional campaign 促销活动Proportion n. 比例Proprietor 拥有人,业主Provisionally adv. 暂时的Public sector 公有部分Public sector 国营企业Purchase 购买Purchasing adj. 销售的Put across 把;;;将清楚Put an emphasis 强调Put off 推迟Put…on board 将;;;;暂缓处理Qualification 资格Quality assurance 质量保证Quality control 质量控制Queue n. 排队Range n. 范围, 幅度Reception n. 接待处Reception n. 招待Recession n. 衰退Recommend v.推荐Recruit 聘用Recruitment n. 招聘Reduced rates 优惠价Reduction n. 减少Reference n. 证明, 介绍Reflective adj. 反光的Refreshments n. 点心,便餐Refund n. 退款Refund n. 退款Register v. 注册Register v. 注册Registration number 注册号Regular adj. 定期的Relaxed adj 放松的Relaxing adj. 使放松Reliability n. 可靠性Relieve v. 缓解Relocation n. 重新安置Repackage v. 重新包装Repetitive adj. 重复的Replace v. 代替Reputation n. 名誉Re-schedule 重新安排Reservation n. 预定Resident adj. 居住的,居留的,长住的Resign v. 辞职Restriction n. 限制Retail v. 零售Retail sales 零售Retail 零售Return journey回程Revenue n. 收入Reward n. 报酬Ridiculous adj. 荒唐的Rival 对手Rock n. 摇滚乐Roll n. 卷Routine 例行公事RSVP 敬请回复Run into 遇到Run out of 用完Run out 用完Run over 将…略微过目Run through 将…过目Rustle up 草草弄好Safety regulation 安全规则Salary range 工资幅度Salary scale 工资的支付额度Sales co-coordinator 销售点的协调员Sales outlet 销售渠道Sales representative 销售代表Salt-water spray test 咸水喷洒实验Satellite n. 卫星Secretarial adj. 秘书的Security badge 安全证章Security camera 安全录像Security pass 安全出入证Security procedure 安全程序Security 安全Sedentary adj. 坐着的,不活动的Selection procedure 挑选程序Seminar n. 研讨会Senior 高级的Sensitive adj.敏感的Seriously adv. 严肃的Service sector 服务部门Session n. 会议,会期Set targets 制定目标ShareholderShareholder n. 股东Sharp pain 巨痛Shed light on 阐明Sheet 纸张Shipment n. 装货Shorthand n. 速记Shorthand 速记Short-sightedness 近视Short-wave n. 短波Show room 样品间Showroom 物品陈列室Sideways 横向的Sign out 签名SignatureSignificant adj. 显着的Slot n. 空位, 空档Snack n. 快餐,便餐Soft drink 软饮料Software package 软件包Software 软件Solicitor 律师Sort out 解决Spacious adj. 宽敞的Spare part 零件Special offer 特价Specialization n. 专门研究, 专业化Specialize v. 专门研究Specialize in 专门研究Specialty n. 特色菜Specific adj. 特有的Specific 特定的Specification n. 规格Spine n. 脊柱Spreadsheet n. 空白表格Spring collection 春季产品总汇Staff appraisal 员工评估Staple v. 装订Static adj. 静的Statistics n. 数据Status n. 状态Stereo n. 立体声Still adj. 静止不动的Stock control 库存控制Stockbroker n. 股票经纪人Store display 商店的布置Strain n. 紧张Strained adj. 紧张的Strap v. 捆绑Strategic planning 战略规划Strategy n. 战略Strength n. 力量Stress v. 强调Strip down 把什么拆下来Studio n. 工作室,播音室Stylish adj. 流行的Subordinate adj. 下属的Subscriber n. 订阅者Subscription n. 订阅Subsidiary n. 子公司Subsidiary 子公司Subsidy n. 补贴Subway n. 地铁Sufficient adj. 足够的Sufficiently adv. 充足的Suit v. 适合Supervise v. 监督,监管Supervise 主管Supplier n. 供应商Support n. 支撑Surface 表面Surname 姓Sweatshirt n. 汗衫Sweep off one’s feet 被深深吸引住Swipe n. 碰擦Switch on 开动电器Symptom n. 症状Take into account 考虑Take it for granted 把;;;看作理所当然Take on n. 雇佣Take over 接收Take the precaution to 采取预防措施Talent n. 天才Target audience 目标观众Team work 团队工作Temporary adj. 暂时的Terms n. 条件Terms n. 条款Terms and conditions 条件Test-marketing 市场测试Textile industry 纺织业The exclusive rights 特权The renewal of the contract 续签合同These things happen 这些事情总是要发生的Thrilled adj. 激动的Tie up 使人忙碌Tilt v. 倾斜Time distribution 时间分配Time sheet 时间表Tone n. 音调,音量Track suits 田径服Trade fair 交易会Trainee 实习生Transaction 交易TransferTray 托盘Treat v. 款待Tremendous adj. 巨大的Trial assembly 实验生产Trial period 试用期Trick n. 窍门Truthful adj. 诚实的T-shirt n. 体恤衫Turnover n. 营业额Unapproachable adj. 不可接近的Unload 卸货Unreliable adj. 不可靠的Update n. 更新Urgent adj. 紧急的Urgently adv. 紧急的Vacancy n. 空缺Vacancy 空位Van 小货车VDU screen Visual Display Units 的缩写电脑显示屏幕Vegetarian n. 素食者Ventilation 通风Venue n. 地点Wander v. 徘徊Warehouse n. 仓库Weed out 剔除Weighing machine 磅秤Wheel cover 轮胎盖Widen v. 拓宽Willingness n. 愿意Withdraw 取钱Withdrawal n. 取款Word processor 文字处理机Work record 工作记录Working conditions 工作条件Worldwide 全世界。
My School Life with AI: An InnovativeJourneyIn the modern era of technological advancements, artificial intelligence (AI) has become an integral part of our daily lives. This integration is particularly evidentin the field of education, where AI has revolutionized the traditional school experience. My school life with AI has been an innovative and engaging journey that has transformed the way I learn and interact with my peers and teachers.One of the most significant impacts of AI in my school life has been the introduction of intelligent learning systems. These systems utilize advanced algorithms to personalize learning experiences based on individual student's needs, abilities, and preferences. By analyzing data from previous assessments and class performances, AI-powered learning platforms provide customized lesson plans, practice questions, and feedback that cater to eachstudent's unique learning style. This personalized approach has made learning more engaging and effective for me, as itaddresses my specific areas of weakness and allows me to progress at my own pace.Another noteworthy aspect of AI in my school life isthe use of virtual assistants and intelligent tutoring systems. These AI-powered tools act as personal learning guides, providing instant answers to questions,explanations of difficult concepts, and reminders about assignments and deadlines. The convenience andaccessibility of these virtual assistants have made iteasier for me to stay organized, manage my time effectively, and seek help whenever I need it.Moreover, AI has also enhanced collaboration and communication within my school community. Digital platforms integrated with AI features allow students, teachers, and parents to interact seamlessly, share resources, and collaborate on projects. Whether it's through online forums, chatbots, or intelligent scheduling systems, AI has facilitated more efficient and effective communication, leading to improved teamwork and enhanced learning outcomes. Additionally, AI has introduced innovative teaching methods that engage students actively. Interactivewhiteboards, virtual reality simulations, and augmented reality applications are just a few examples of how AI technology is being used to create immersive and engaging learning experiences. These technologies not only make learning more fun but also help students to retain information better and apply it in real-world scenarios.However, while the integration of AI in my school life has brought numerous benefits, it's also important to recognize the challenges and ethical considerations that accompany this technology. Privacy concerns, the potential for bias in AI algorithms, and the impact on human interaction and social skills are some of the critical issues that need to be addressed. Balancing the use of AI with traditional teaching methods and fostering a human-centered approach to education are crucial in ensuring that AI serves as a tool for enhancing learning rather than replacing human interaction and critical thinking skills. In conclusion, my school life with AI has been an exciting and transformative experience. The integration of AI in education has opened up new possibilities for personalized learning, efficient collaboration, andengaging teaching methods. However, it's essential to approach this technology with caution and consider its ethical implications. As we continue to explore thepotential of AI in education, it's important to rememberthat technology should serve as a complement to human capabilities and not replace them.**我的校园生活与AI:一次创新的旅程**在科技飞速发展的现代,人工智能(AI)已经成为我们日常生活的重要组成部分。
关于教育体系的英文作文英文回答:The education system is a complex and multifaceted institution that plays a vital role in shaping the lives of individuals and societies. It encompasses a wide range of components, including educational institutions, curricula, teaching methods, and assessment practices. The primary goal of an education system is to provide individuals with the knowledge, skills, and values necessary for personal growth, active citizenship, and lifelong success.One of the most important functions of an education system is to equip students with the basic literacy and numeracy skills essential for participation in modern society. These skills are fundamental to accessing information, communicating effectively, and engaging in critical thinking. In addition, an education system should provide students with a broad understanding of the world around them, including subjects such as history, science,geography, and culture. This knowledge helps students develop a comprehensive worldview and make informed decisions throughout their lives.Beyond academic knowledge, an education system should also foster the development of essential life skills, such as problem-solving, critical thinking, creativity, and collaboration. These skills are crucial for success in the workplace and in everyday life. An effective education system provides opportunities for students to develop these skills through hands-on learning, project-based assignments, and other engaging activities.Another key role of an education system is to prepare students for higher education and the workforce. This involves providing students with the necessary knowledgeand skills to pursue specialized studies or enter various occupations. Secondary education often includes vocational and technical programs designed to prepare students for specific career paths. Higher education institutions, such as colleges and universities, offer a wide range of academic programs that allow students to acquirespecialized knowledge and skills in various fields.The effectiveness of an education system is influenced by numerous factors, including funding, teacher quality, and access to educational resources. Well-funded education systems can provide adequate resources for teachers and students, such as up-to-date textbooks, technology, and facilities. High-quality teachers can create engaging learning environments and inspire students to achieve their full potential. Equitable access to education is essential for ensuring that all students, regardless of their background or circumstances, have the opportunity to succeed.In conclusion, an education system plays a pivotal role in the development of individuals and societies. It provides students with the knowledge, skills, and values necessary for personal growth, active citizenship, and lifelong success. A well-rounded education system encompasses a broad range of components, including academic knowledge, essential life skills, and preparation for higher education and the workforce.中文回答:教育体系的作用。
US-China Education Review, ISSN 1548-6613February 2011, Vol. 8, No. 2, 220-232220Potential Use of Course Management Systems in HigherEducation Institutions in JordanMuhannad Al-Shboul The University of Jordan, Amman, JordanGiven the increased adoption of the CMS (course management systems) as an instructional tool, it is important toaddress the potential use of this technology in Jordanian higher education institutions. This study investigates thepotential to use CMS tools in instruction in the academic institutions in Jordan. This study does not seek to evaluatethe current use of computer mediated tools or their features in instruction. Its purpose is to investigate what iscurrently taking place with CMS in higher education settings. Therefore, the study does not seek to determine thevalue that the use of the CMS tools may have contributed to instruction, however, it identifies the level oftechnology integration as well as the level of the technology use in higher education and problems associated withits use among the faculty. This study identifies prevalent faculty attitudes and perceptions toward the potential useof CMS tools in higher education institutions, in general, and in Jordan, in particular.Keywords: course management systems, e-learning, Web-based learning, authoring toolsIntroductionCMS (course management systems) are fairly new software tools that have been used in an educational setting for around a decade. CMS are Internet-based software that manage student enrollment, track student performance, and create and distribute course content electronically. In this way, the CMS allow faculty members to manage their courses and use technology tools in their teaching, as well as enable them to extend the classroom beyond its traditional boundaries of time and space (Warner, 2003). The main purpose of CMS packages is to enable faculty to create course Web sites, that is to place course materials online and manage course activities (Kuriloff, 2001). In short, CMS are tools that faculty can use to create online course content (without knowing programming languages), communicate electronically with students and conduct assessments (Dabbagh, 2001).CMS became widely available in 1997, and their popularity and use have increased dramatically ever since (Rabinowitz & Ullman, 2004). CMS tools (such as blackboard, WebCT, Webboard, moodle and LiveText) have become invaluable tools for teaching with technology and have been widely adopted by many colleges and universities all over the world. In addition, courses that use CMS tools to deliver content are currently being integrated into instruction at a rapid pace (Green, 2002; Nelson, 2003). Three aspects of CMS make them extraordinary tools for ordinary instructors. First, the files are all kept on CMS servers. Second, it is invaluable to instructors that the entire course can be archived for future use. Third, they have the convenience that theMuhannad Al-Shboul, Ph.D., assistant researcher, Computer Center, The University of Jordan.POTENTIAL USE OF COURSE MANAGEMENT SYSTEMS 221users can access the course materials from anywhere at any time (Caplan-Carbin, 2003).One of the main advantages of CMS is that faculty can design asynchronous course activities and communication outside the face-to-face class (Widmayer, 2000). According to Rabinowitz and Ullman (2004), faculty have much to teach and explain to their students, but there is never enough time during a semester to cover all of what they want to cover. For this reason, they indicated that CMS were developed to help the faculty solve the time issue that they encountered during their lectures and assist them in course development and overall management using the Internet.However, “Effective use of CMS tools does not result from the use of the tools but rather from the integration of the tools in teaching” (Nelson, 2003, p. 3). If we are to understand and realize the potential use of such CMS tools in higher education in Jordan from a learning perspective, we must understand the perceptions of both faculty users and non-users of the CMS authoring tools. Consequently, as more courses require the use of CMS tools, as more funding is required to implement and support these classes, and as more time is required to develop and facilitate these courses, it becomes critical to understand why faculty choose to use or not to use these tools for their course support. In other words, we should examine the motivating factors for using CMS tools as well as the inhibiting factors from using CMS tools as perceived by the faculty members.Given the increased adoption of the CMS as instructional tools, it is important to address the potential use of this technology in Jordanian higher education institutions. This study investigates the potential to use CMS tools in instruction in the academic institutions in Jordan. In this regard, it is very important to point out that this study is just a direct reflection of the literature on the level of faculty involvement and the challenges that are associated with using CMS tools in higher education in general. Specifically, this study is considered as a cornerstone for another study, which will be conducted at the mid of September 2010 in one of the public universities in Jordan by the researcher to verify the findings of the reviewed literature as they revealed in this paper.In addition, because Jordan has almost the same academic atmosphere comparing to that of the international one; also, because Jordan is utilizing almost the same CMS and authoring tools, it is important to point out that the findings of this study are not only applied to the international academic institutions, but also applied to the academic institutions in Jordan as well.This study is organized into four parts. Part one introduces the significance of the study and describes the purpose of the study. Part two provides a literature review about the use of CMS in instruction and addresses a brief history of CMS in higher education and the related faculty perspectives. Part three describes what is currently taking place with CMS integration at higher education institutions and discusses what higher education administrations could do to improve the utilization of CMS tools at their campuses. And part four provides the findings of the study, conclusions and recommendations for future studies.Significance of the StudyA major thrust of education is integration of technology into teaching (Nelson, 2003). Technology by itself cannot be effective. Providing the latest technology to learners does not necessarily ensure improved learners’ participation or achievement. Additionally, technology does not necessarily improve instruction. Faculty’s attitude toward technology was found to be an important element in a successful integration of technology (Mitra, Steffensmeier, Lenzmeier, & Massoni, 1999; Nelson, 2003). It is important to investigate the level of technology integration in education, in general, and in Jordan, in particular; specifically, the faculty’s attitudesPOTENTIAL USE OF COURSE MANAGEMENT SYSTEMS222toward the utilization of CMS in their classrooms.In a recent study of technology innovations, Lynch (2002) found that, while 80% of colleges in his study have course management systems available, faculty only use these tools in 20% of courses offered. Why is such a low percentage of faculty members making use of CMS tools in educational settings? “Despite its potential benefits, the effectiveness of computer mediated communication when used to support learning in higher education is very variable, making it important to identify those factors which best predict successful implementations” (Tolmie & Boyle, 2000, p. 138). However, research indicates that one of the problems hindering the use of distance education tools (technology) in higher education is faculty resistance (Berge, 1998). Research is needed to explore the faculty perceptions about the use of CMS tools in instruction in higher education institutions.This study is valuable for the instructional technology leadership, because it establishes a cornerstone for any development training program for faculty technology integration at higher education institutions. Also this study is beneficial to instructional technologists in understanding faculty reluctance when diffusing new instructions or educational packages.The purpose of this study is to identify the issues and concerns of the use of CMS and similar tools in higher education. Specifically, the study, based on the reviewed literature, identifies the faculty’s perceptions about their use of CMS tools, identifies the factors that might be related to faculty use of CMS and investigates what higher education institutions can do to improve the utilization of CMS at their campuses.Research on faculty’s uses of technology in instruction is important, because educators who are comfortable about using technology model positive uses of technology to learners (Chiero, 1997; Kagima, 2001; Taylor, Torrie, Hausafus, & Strasser, 1999). Conducting research on faculty attitudes toward the use of CMS tools in teaching is important, because the findings will help understand technology integration.The importance of the obtained information can assist higher education institutions in determining the educational costs and value in terms of CMS effectiveness regarding the technology integration, because academic institutions spend millions of dollars per year on technology. Also, the obtained data can help in determining what academic institutions can do to improve technology integration (such as CMS) at their campuses. The obtained data can provide information about what academic institutions can do to reduce, minimize or overcome the obstacles to technology integration (such as CMS), because the level of technology integration has become a source of data upon which to evaluate university performance and reputation (Feeney, 2001).Identifying the level of technology integration in higher education and faculty’s attitudes and perceptions toward CMS in higher education may lead to a better understanding of the causes of reluctance to CMS use. This study helps fill in the gap in the current instructional technology knowledge base regarding faculty attitudes and perceptions concerning the use of CMS in higher education, as well as the level of technology integration in higher education.Additionally, the findings from this study assist faculty development directors when developing training programs for the faculty. Faculty training has been found to be an essential factor for successful implementation of new technology in higher education teaching and learning environments (Butler & Sellbom, 2002; Morgan, 2003; Ndahi, 1999).This study does not seek to evaluate the current use of computer mediated tools or their features in instruction. Its purpose is to investigate what is currently taking place with CMS in higher education settings.POTENTIAL USE OF COURSE MANAGEMENT SYSTEMS 223Therefore, the study does not seek to determine the value that the use of the CMS tools may have contributed to instruction; however, it identifies the level of technology integration as well as the level of the technology use in higher education and problems associated with its use among the faculty.Literature ReviewCurrent research indicates that many faculty members choose to integrate CMS tools for a variety of reasons. Some are interested in the convenience factor the tools provide for communication with students, while others are motivated because of administrative pressure. Whatever the reasons, most CMS tools are currently underexploited in teaching (Nelson, 2003).Many college faculty members are using CMS tools to supplement their traditional classroom instruction (Nelson, 2003; Warner, 2003). Clifford, Earp and Reisinger (2003) indicated that data published in Market Data Retrieval’s 2002-2003 Annual Survey of Instructional Technology Trends in Higher Education showed that 91% of colleges and universities reported using some type of CMS in 2002. Most of reviewed research indicated that the primary use of CMS tools is mainly for communication and convenience purposes (Dietz-Uhler & Bishop-Clark, 2001; Grandgenett, 2001; Mitra, Hazen, LaFrance, & Rogan, 1999; Nelson, 2003; Sherry, 1999; Strudler & Wetzel, 1999).Lewallen (1998) found that 100% of faculty surveyed used CMS communication tools in their daily life activities, but only about one-third of the same faculty used these tools in their teaching. Thus, “Some faculty members are simply unable to connect technology use to their teaching” (Nelson, 2003, p. 21). However, to many faculty members, technology use is often viewed as a separate activity and does not require the same forethought as traditionally formatted course tasks (Pierson, 2001). “Attitude toward technology and prior use of technology was found to be an important element” (Nelson, p. 21); therefore, “Faculty who possess a positive attitude about CMS tools are more likely to use them in instruction” (p. 21).“The influence of technology on teaching and learning is becoming more and more evident in educational institutions” (Ndahi, 1999, p. 21). The increasing availability of effective technology justifies investigating the level of faculty involvement, and the challenges that are associated with using these technologies. Some of these technologies are new to many institutions and faculty (Ndahi, 1999). Additionally, when people within an organization plan for using new or existing technology, there are several barriers to their efforts that they are likely to encounter. A consideration of the barriers faced by organizations may help organizational leaders find solutions to reduce or minimize these obstacles (Cho & Berge, 2002).According to Cho and Berge (2002), organizational cultures, norms and strategic planning influence the adoption and deployment of technology. Hence, most of the literature found that the need for faculty development and institutional support (encouragement and incentive) are consistently identified as primary factors influencing the use of new instructional technology at higher education settings (Butler & Sellbom, 2002; Morgan, 2003; Ndahi, 1999).According to Feeney (2001), CMS have been the focus of recent scholarly attention. As integrating technology into higher education becomes an institutional imperative at schools across the US, adoption of digital courses in new CMS becomes both an organizational goal and a source of data upon which to evaluate performance. Furthermore, Feeney (2001) stated that higher education institutions face persistent challenges in the use of technology, with the CMS being the latest technology challenge.POTENTIAL USE OF COURSE MANAGEMENT SYSTEMS224According to the 2003 Campus Computing project, more than 80% of universities and colleges in the US utilized CMS (Morgan, 2003). Harrington, Gordon and Schibik (2004) noted that perhaps no other innovation in higher education has resulted in such rapid and widespread use as the CMS. In the early of mid 1990s, faculty utilized a variety of Web-based tools to supplement course content and curriculum. Many faculty began using email and basic HTML (hypertext markup language) functionality in an attempt to increase interaction and enhance the teaching and learning process.Research indicated that one of the problems hindering the use of CMS in higher education is faculty resistance (Betts, 1998). Despite the expansion of distance education programs and its related technology across the US, many faculties are reluctant to participate in distance education or use its related technology, such as CMS (Olcott & Wright, 1995). Faculty’s reluctance has been linked to internal issues such as a lack of incentives and rewards systems to encourage faculty participation and a lack of an institutional framework to train distance teaching faculty (Lewis, 1985; Verduin & Clark, 1991). Betts (1998) stated that one of the primary factors that influences faculty participation in distance education and its related technology is the effect on faculty workload.According to Harrington et al. (2004), many universities, in an attempt to reduce the load on faculty, hired webmasters and instructional designers to assist faculty in creating more dynamic and learner-friendly instructional related websites. Several higher education institutions and commercial companies foresaw the need for more user-friendly approaches to put course materials on the Web and the need for increased availability to learners via the Internet. These entities began developing systems that would be relatively easy to use, requiring little or no knowledge of programming language (HTML, Java) and with the tools necessary to be useful for instruction. Between 1995 and 1997, several academic and commercial CMS applications were launched in the higher education market.These early CMS had only slight variations in available tools (Gray, 1998, 1999; Katz, 2003). Over time, a core group of tools were available with essentially all CMS. These core components included tools for synchronous and asynchronous communication, content storage and delivery; online quiz and survey tools, gradebooks, whiteboards, digital dropboxes and email communications (Harrington et al., 2004). While the majority of these tools are seen in the most commonly used CMS today, the robustness, flexibility and ease of use have generally all been refined. Furthermore, a vast array of additional components have been added, including mechanisms for just-in-time delivery and integration to front- and back-office administrative computing systems.Hannafin and Savenye (1993) examined some of the reasons why many instructors do not use, and sometimes resist, technology. They found that instructors may have felt threatened by change, so chose to resist it; they stated, “Fear is often cited as a reason for teacher resistance, even preventing some teachers from using any form of technology in the classroom” (p. 27). They also found that little formal effort was made to support instructors who tried to implement new technology. Wolski and Jackson (1999) indicated that there is a need for better representations of why some faculties adopt technology and why some faculties resist it.Katz (2003) reported that the past several years have witnessed the emergence of the CMS as an integral part of higher education’s instructional infrastructure. CMS have “become dominant elements of higher education’s system of educational delivery” (Morgan, 2003, p. 85). Green (1995) reported that 6% of all college courses used Web-based resources to support instruction; then Green (2001) found that 73.2% of the institutionsPOTENTIAL USE OF COURSE MANAGEMENT SYSTEMS 225sampled used CMS. Hence, “College and university campuses have and continue to designate resources to technology integration” (Nelson, 2003, p. 32). However, given the change that is required to integrate CMS tools effectively, timely faculty development, support and learning materials are gaining importance.Ely (2002) indicated that traditional approaches to teaching and learning in postsecondary environments continue to be a dominant force for a number of reasons: (1) professors hesitate to change; (2) some faculty do not have the skills to use information technology and are not especially eager to learn; and (3) there is an institutional reluctance to provide sufficient personnel and financial assistance to facilitate the use of networking. He noted that almost every technological development that has had potential for improving instruction has been confronted with barriers regarding user skill and confidence. Ely (2002) also indicated that potential users may be convinced that the technology has potential for improving learning, but the potential users are often reluctant to acquire the skills for using the new technology.In summary, the reviewed literature identified that the problems facing higher education faculty in integrating technology into their classes need to be addressed to improve the level of technology utilization. Furthermore, the reviewed literature identified that the level of CMS use has increased as faculty perspectives toward such technology have been addressed.Technology Integration in Higher EducationThis section addresses the level of technology integration in higher education and problems associated with its use among the faculty. “Technology is continuing to be a driving force in the delivery of education. Most college and university campuses have and continue to designate resources to technology integration. For faculty members, this is exciting and challenging” (Nelson, 2003, p. 32).While Ely (2002) indicated that “Faculty members at institutions of higher education have usually been late adopters of innovations for teaching and learning” (p. 11), Green (2000) pointed out that more college courses are using more technology resources. Green’s 2000 survey revealed that three-fifths (59.3%) of all college courses now utilize electronic mail, up from 54% in 1999, 44% in 1998 and 20.1% in 1995. Furthermore, the survey revealed that two-fifths (42.7%) of college courses in 2000 used Web resources as a component of the syllabus, up from 10.9% in 1995, 33.1% in 1998 and 38.9% in 1999. Moreover, Green’s 2000 survey revealed that almost one-third (30.7%) of all college courses had a Web page, compared to 28.1% in 1999, 22.5% in 1998 and 9.2% in 1996. Green’s 2000 Campus Computing Survey revealed that almost one-fourth (23.0%) of all college faculty had a personal Web page not linked to a specific class or course, compared to just 19% in 1999.The integration of technology in teaching in higher education has become an important issue (Nelson, 2003). Ely (2002) indicated that technology integration in instruction is one of the current trends in educational technology. In 2000, Green reported that there is a rising use of technology in instruction. The increasing availability of technology in instruction justifies investigating the level of faculty involvement, and the challenges that are associated with using these technologies (Ndahi, 1999).Green (2002) pointed out that courses use technology to deliver content are currently being integrated into instruction at a rapid pace. In the 2003 National Survey of Information Technology in US Higher Education, Green (2003) reported that a third of all college courses are using CMS tools, up from 26.5% in 2002, and 20.6% in 2001, and almost double the level in 2000 (14.7%). His survey data also revealed that over half (51.4%) of thePOTENTIAL USE OF COURSE MANAGEMENT SYSTEMS226respondents’ institutions had a strategic plan for developing CMS tools, compared to 47.5% in 2002.Green also reported that more than four-fifths (82.3%) of the participating institutions in his survey had already established a single product standard for CMS software, up from roughly three-fourths (73.2%) in the 2001 survey and 57.8% in 2000. He indicated that CMS are playing an increasingly significant role in instruction across all sectors. Green concluded that CMS tools have become an important component of the institutional instructional infrastructure: Both the percentage of classes that use CMS resources and the number of institutions that have established a campus standard for a CMS product are on the rise. Hence, as more instruction includes the use of these tools, issues in effective technology use become more important (Nelson, 2003). Investigating the level of faculty involvement and the challenges that are associated with using CMS have become essential issues in higher education.In regards to the challenges to faculty use of technology, Rogers (2003) stated that “Getting a new idea adopted, even when it has obvious advantages, is difficult” (p. 1). According to Rogers, “When new ideas are invented, diffused, and are adopted or rejected” (p. 6), social change occurs with certain consequences. Accordingly, adapting new technological innovation in higher education requires faculty to change their ways of teaching. Such change does not come easily (Schifter, 2000). Walsh (1993) stated, “Implementation of an innovation often requires change in the environment where it is introduced” (p. 52). Wolski and Jackson (1999) noted that adapting new technology, such as CMS, is not that simple. Some users will resist change entirely, with resistance to change in educational organizations being a widely recognized problem in the study of higher education.In this regard, Berge (1998) indicated that one of the problems hindering the use of new technology, such as CMS and distance education technology, in higher education is faculty resistance. Betts (1998) pointed out that research indicates that one of the problems hindering the use of distance education technology in higher education is faculty reluctance. In addition, Ely (2002) indicated that professors at higher education institutions hesitate to change. Rogers (2003) pointed out that anxiety, fear and resistance to change are natural phenomena when diffusing a new innovation, and that the attitudes and perceptions of users play an important role when such diffusion occurs. Marvin et al. (1999) stated about the situation most succinctly, “Faculty attitudes about instructional technology influence the successful implementation of technology in the classroom” (p. 4).“The gap between technology adoption and technology use in teaching has been noted worldwide” (Feeney, 2001, p. 11). Therefore, “Understanding the rate of adoption in any given situation requires analyzing factors that may facilitate the adoption and those that may operate as barriers to adoption” (Butler & Sellbom, 2002, p. 22). Ndahi (1999) indicated that the reasons which faculties are uncomfortable or resistant to using interactive computer-based instruction, such as CMS, in higher education institutions, are not made clear. Morgan (2003) found that some faculties are reluctant to adopt CMS.Holden and Mitchell (1993) indicated that faculty’s attitude is one of the obstacles that higher education institutions face. They stated, “The resistant attitude of faculty to using CMC applications, such as CMS, is an obstacle that will need to be overcome in order to ensure the success of future instructional CMC applications” (p. 36). Walsh (1993) indicated that the rate of adoption of distance education technology, such as CMS, in institutions of higher education, is slow. He also stated that faculty in institutions of higher education, and in particular, the attitudes of the faculty, are critical elements in the diffusion process.On the one hand, some scholars found that: (1) Some faculty are reluctant to adopt CMS, because they believe that the systems reduce their control of instruction and the instructional environment; (2) Training ofPOTENTIAL USE OF COURSE MANAGEMENT SYSTEMS 227faculty plays a key role in successful CMS adoption and use; (3) Strong leadership by campus executives and department chairs plays an important role in shaping and encouraging faculty to use CMS; and (4) The pedagogical impact of using CMS is perceived but difficult to measure.On the other hand, the findings of Ndahi’s (1999), Muilenburg and Berge’s (2001), Butler and Sellbom’s (2002), Anderson’s (2003) and Morgan’s (2003) studies showed that institutional support, encouragement and faculty training are essential factors for successful implementation of new technology in higher education teaching and learning environment. Clark (1993) found that department chairs, who will most influence future adoption and institutionalization of teaching innovations and new programs, were relatively positive in their attitudes toward the use of distance education technology and delivery tools when compared to other tenured and tenure-track university professors or other faculty at two-year colleges. Also, these studies indicated that, to successfully implement new technology in teaching and learning, educational institutions must address these barriers to faculty adoption. They also emphasized the need for further research to investigate faculty perceptions of CMS, to validate their findings and to analyze the utilization of CMS in higher education.Ndahi (1999) examined the extent to which distance learning technology is used by faculty in industrial and technical teacher education programs. He identified the variables or factors that contribute to faculty willingness or unwillingness to use interactive distance learning technology in industrial and technical teacher education programs. He also indicated that the reasons why faculty are uncomfortable or resistant to using interactive computer-based instruction (such as distance learning technology and course management systems) at higher education institutions are not made clear, thus, making it difficult to develop strategies to overcome the resistance if the reasons for instructors’ willingness or unwillingness to use these technologies are not understood. “Therefore, faculty and administration have to work together to identify, examine, and perform solutions so that the goal and mission of the institution, as well as the needs of the students, can be met” (Gammill, 2004, p. 30). However, he found that the most common reasons given by faculty for not using distance learning technology in their teaching are: (1) a lack of institutional encouragement, support and incentives; and (2) a lack of adequate training in the use of technology.Butler and Sellbom (2002) identified the factors that might affect faculty use of modern instructional technology. They identified the factors that faculty believes are important either in facilitating the use or in creating barriers that work against the use of such technology. They indicated that technology use needs more flexible and adaptive organizational cultures, norms and planning. They found that knowing how to utilize technology is the second most important factor in determining faculty use of modern instructional technology. However, they found that a lack of institutional support and a lack of time to learn new technology (workload) are the major factors affecting faculty use of technology.Rogers (2000) examined barriers to technology adoption. She found that barriers to successful technology adoption in education appear to have internal and external sources. Internal barriers may be summarized as “teacher attitude” or “perceptions” about a technology, in addition to a person’s actual competency level with any technology. External sources include the availability and accessibility of hardware and software, the presence of technical personnel and institutional support, and an appropriate and adequate program for staff development and skill building. Barriers that cross internal and external sources are lack of time, funding and the unique culture of the institution. Furthermore, Rogers found that “Attitudes and perceptions of key individuals in the academic institutions may become the major barrier to adopting any technology” (p. 467).。
Automotive Control and Systems As an automotive control and systems engineer, I have encountered various challenges in the field, and one of the most pressing problems is the integration of advanced control systems in modern vehicles. With the rapid advancement of technology, vehicles are becoming more complex, and there is a growing demand for sophisticated control systems to ensure optimal performance, safety, and efficiency. However, integrating these systems seamlessly into vehicles poses a significant challenge, as it requires a deep understanding of both mechanical and electrical engineering, as well as a keen awareness of the latest technological developments. One of the main issues in automotive control and systems is the need for real-time monitoring and control of various vehicle parameters, such as engine performance, braking, steering, and suspension. This requires the implementation of advanced sensors and actuators, as well as the development of complex algorithms to process the data and make split-second decisions. Ensuring the reliability and accuracy of these systems is crucial, as any malfunction or delay in response could have serious consequences for the vehicle and its occupants. As an engineer, I constantly grapple with the challenge of designing control systems that are both highly responsive and fail-safe, which often involves striking a delicate balance between performance and safety. Another significant problem in automotive control and systems is the integration of autonomous driving technology. With the rise of self-driving vehicles, there is a growing need for control systems that can interpret data from various sensors, such as cameras, lidar, and radar, to make informed decisions about vehicle operation. This presents a unique set of challenges, as autonomous driving systems must be able to navigate complex and dynamic environments while ensuring the safety of passengers and other road users. As an engineer, I am tasked with developing control systems that can accurately interpret sensor data, make intelligent decisions, and seamlessly integrate with other vehicle systems to enable autonomous operation. In addition to technical challenges, automotive control and systems also face regulatory and ethical dilemmas. As vehicles become increasingly autonomous, there is a pressing need for clear regulations and standards to ensure the safe and ethical deployment of this technology. Engineersmust navigate this complex landscape, considering not only the technicalfeasibility of autonomous driving systems but also the legal and ethical implications of their use. This requires a multifaceted approach that goes beyond technical expertise, encompassing a deep understanding of legal and ethical frameworks, as well as effective communication with regulatory bodies and the public. Moreover, the integration of advanced control systems in vehicles also raises concerns about cybersecurity. As vehicles become more connected and reliant on electronic control systems, they become increasingly vulnerable to cyber-attacks. Ensuring the security of these systems is a critical challenge, as any breach could have catastrophic consequences. Engineers must constantly innovate to stay ahead of potential threats, developing robust cybersecurity measures to protect vehicle control systems from unauthorized access and manipulation. Furthermore, the rapid pace of technological advancement presents a continuous challenge in automotive control and systems. As new technologies emerge and consumer expectations evolve, engineers must adapt and innovate to stay ahead of the curve. This requires a proactive approach to research and development, as well as a willingness to embrace new ideas and methodologies. It also demands a commitment to lifelong learning, as engineers must continuously update theirskills and knowledge to keep pace with the latest advancements in the field. In conclusion, automotive control and systems present a myriad of challenges, spanning technical, regulatory, ethical, and cybersecurity domains. As an engineer in this field, I am constantly confronted with complex problems that require innovative solutions and a multidisciplinary approach. While these challenges can be daunting, they also present exciting opportunities for growth and advancement, driving the automotive industry towards a safer, more efficient, and more sustainable future.。
教学意见英文作文Title: Constructive Teaching Feedback。
Teaching is an art that requires continuous refinement and improvement. Constructive feedback plays a pivotal role in helping educators enhance their teaching methods and create a more engaging learning environment for students. In this essay, I will delve into various aspects of constructive teaching feedback and its significance in professional development.Firstly, constructive teaching feedback encompasses both positive reinforcement and areas for improvement. It should focus on specific actions or strategies employed by the educator and their impact on student learning. Positive feedback acknowledges effective teaching practices, reinforces desirable behaviors, and boosts the teacher's confidence. Conversely, constructive criticism identifies areas where adjustments are needed, provides suggestionsfor improvement, and fosters reflection and growth.One of the key benefits of constructive teaching feedback is its role in enhancing teaching effectiveness. By receiving feedback from peers, mentors, administrators, or even students, educators gain valuable insights into their teaching practices. They can identify strengths to leverage and weaknesses to address, leading to continuous improvement. Additionally, feedback helps teachers stay abreast of best practices, innovative teaching methods, and emerging trends in education.Furthermore, constructive feedback fosters a culture of collaboration and professional development within educational institutions. When teachers engage in meaningful dialogue about teaching strategies and student learning outcomes, they contribute to a supportive and dynamic learning community. Peer observation, coaching, and mentoring programs provide opportunities for educators to learn from each other, share expertise, and collaborate on improving instructional practices.Moreover, constructive teaching feedback promotesstudent-centered teaching approaches. By soliciting feedback from students about their learning experiences, teachers gain valuable insights into student engagement, comprehension, and motivation. This feedback allows educators to tailor their instruction to meet the diverse needs of learners, promote active participation, and create a more inclusive classroom environment.It's worth noting that delivering constructive feedback requires tact, empathy, and sensitivity. Educators should strive to provide feedback in a respectful and non-threatening manner, focusing on specific behaviors rather than personal attributes. Additionally, feedback should be timely, actionable, and accompanied by supportive resources or professional development opportunities.In conclusion, constructive teaching feedback is essential for professional growth and improving student outcomes. By providing a balance of positive reinforcement and areas for improvement, feedback empowers educators to enhance their teaching practices, foster collaboration, and create a more student-centered learning environment.Embracing a culture of continuous feedback and reflection enables teachers to excel in their profession and positively impact the lives of their students.。
2024高中英语教资The field of education is constantly evolving, and the demands placed on teachers are ever-changing. As we look towards the year 2024, the landscape of high school English teaching is poised to undergo significant transformations. The 2024 high school English teacher certification will be a crucial milestone, shaping the future of this vital profession.One of the primary drivers of change in the 2024 high school English teacher certification will be the increasing emphasis on technology integration. In an era where digital tools and resources have become ubiquitous in the classroom, English teachers will be expected to not only possess a strong command of traditional teaching methods but also the ability to seamlessly incorporate technology into their lessons. This will require a deep understanding of educational technology, including the effective use of digital platforms, online resources, and multimedia content.Furthermore, the 2024 high school English teacher certification will place a greater emphasis on the development of critical thinking andanalytical skills. As the world becomes increasingly complex, students will need to be equipped with the ability to critically evaluate information, think creatively, and communicate effectively. English teachers will be tasked with fostering these essential skills, ensuring that their students are prepared to navigate the challenges of the21st century.Another key aspect of the 2024 high school English teacher certification will be the focus on cultural responsiveness and inclusivity. In an increasingly diverse educational landscape, English teachers will be expected to create learning environments that are inclusive, respectful, and responsive to the unique needs and backgrounds of their students. This will involve developing a deep understanding of cultural differences, incorporating diverse perspectives into the curriculum, and creating opportunities for students to engage in meaningful discussions about identity, equity, and social justice.Additionally, the 2024 high school English teacher certification will emphasize the importance of personalized instruction and differentiated learning. As each student brings their own unique strengths, challenges, and learning styles to the classroom, English teachers will be required to adapt their teaching approaches to meet the individual needs of their students. This will involve the use of formative assessments, data-driven decision-making, and theimplementation of evidence-based instructional strategies that cater to the diverse learning needs of the student population.The 2024 high school English teacher certification will also place a greater emphasis on the development of social-emotional learning (SEL) competencies. In recognition of the critical role that emotional intelligence plays in academic and personal success, English teachers will be expected to incorporate SEL principles into their instructional practices. This will involve fostering students' self-awareness, self-management, social awareness, relationship skills, and responsible decision-making, all of which are essential for academic achievement and personal growth.Furthermore, the 2024 high school English teacher certification will require a strong foundation in content knowledge and pedagogical skills. English teachers will be expected to have a deep understanding of literary analysis, writing instruction, language development, and the complexities of the English language. They will also be required to demonstrate proficiency in various teaching methodologies, such as project-based learning, inquiry-based instruction, and collaborative learning strategies.Finally, the 2024 high school English teacher certification will emphasize the importance of ongoing professional development and reflective practice. In a rapidly changing educational landscape,English teachers will be expected to continuously engage in learning, seeking out new research, best practices, and innovative approaches to teaching. This will involve participating in professional learning communities, attending workshops and conferences, and engaging in self-reflection to identify areas for growth and improvement.In conclusion, the 2024 high school English teacher certification will be a pivotal moment in the evolution of this critical profession. By addressing the changing needs of students, the increasing role of technology, the importance of cultural responsiveness, and the emphasis on personalized instruction and social-emotional learning, the 2024 certification will help to ensure that the next generation of high school English teachers are equipped with the knowledge, skills, and dispositions necessary to inspire and empower their students. As we look towards the future, the 2024 high school English teacher certification will be a testament to the ongoing commitment to excellence in education and the unwavering dedication of those who choose to shape the minds and hearts of our young people.。
ai对课堂的优点缺点英语作文初中The integration of Artificial Intelligence (AI) in the classroom has been a topic of growing interest and debate in recent years. As technology continues to advance, the potential benefits and drawbacks of utilizing AI in educational settings have become increasingly apparent. This essay will explore the various advantages and disadvantages of AI in the classroom, with a focus on its impact on the learning experience of students at the secondary level.One of the primary advantages of AI in the classroom is its ability to personalize the learning experience for each student. AI-powered adaptive learning systems can analyze a student's individual strengths, weaknesses, and learning preferences, and then tailor the content and pace of instruction accordingly. This can lead to more efficient and effective learning, as students are able to focus on areas where they need the most support, while also being challenged in areas where they excel. Additionally, AI-powered virtual tutors can provide students with personalized feedback and guidance, helping them to overcome specific learning challenges and achieve their academic goals.Another significant advantage of AI in the classroom is its potential to enhance the efficiency and productivity of teachers. AI-powered grading and assessment tools can automate the process of evaluating student work, freeing up teachers to focus on other important tasks, such as lesson planning, professional development, and one-on-one interactions with students. Furthermore, AI-powered lesson planning and content curation tools can help teachers to create more engaging and effective learning experiences, drawing from a vast database of educational resources and best practices.AI can also play a crucial role in improving accessibility and inclusivity in the classroom. For students with disabilities or special needs, AI-powered assistive technologies can provide valuable support, such as text-to-speech, speech recognition, and translation services. This can help to ensure that all students have equal access to educational content and opportunities, regardless of their individual learning challenges or language barriers.However, the integration of AI in the classroom is not without its drawbacks. One of the primary concerns is the potential for AI to replace or diminish the role of human teachers. While AI can certainly enhance and support the work of teachers, there is a fear that it could ultimately lead to the marginalization of the teaching profession, as AI-powered systems become increasingly capable ofdelivering instruction and feedback. This could have significant implications for the quality of education, as well as the job security and professional development of teachers.Another potential disadvantage of AI in the classroom is the risk of bias and discrimination. AI systems are ultimately designed and trained by human beings, and as such, they can inherit and perpetuate the biases and prejudices of their creators. This can lead to unfair or inaccurate assessments of student performance, as well as the perpetuation of harmful stereotypes and inequalities within the educational system.Additionally, the reliance on AI-powered technologies in the classroom can raise concerns about data privacy and security. As students' personal and academic information is collected and analyzed by AI systems, there is a risk of sensitive data being compromised or misused, potentially putting students' privacy and well-being at risk.Furthermore, the integration of AI in the classroom can also have significant financial implications for educational institutions. The development, implementation, and maintenance of AI-powered technologies can be costly, and there is a concern that the investment in these technologies may divert resources away from other important educational priorities, such as teacher training,curriculum development, and infrastructure improvements.In conclusion, the integration of AI in the classroom presents both advantages and disadvantages that must be carefully considered. While AI can enhance the personalization, efficiency, and accessibility of the learning experience, it also carries the potential risks of replacing human teachers, perpetuating biases, compromising data privacy, and diverting resources away from other important educational priorities. As educators and policymakers continue to explore the use of AI in the classroom, it is crucial that they do so with a balanced and nuanced approach, prioritizing the well-being and academic success of all students, while also supporting the crucial role of human teachers in the educational process.。
Education systems around the world vary significantly, and the differences between Eastern and Western education are particularly notable. Here are some key distinctions that can be observed in an English composition on the topic:1. Philosophical Approach: Western education tends to emphasize individualism, creativity, and critical thinking, while Eastern education often prioritizes discipline, respect for authority, and rote memorization.2. Curriculum and Content: Western curricula often include a wide range of subjects and encourage exploration of various interests. Eastern curricula, on the other hand, may be more focused on core subjects like math, science, and language, with less emphasis on electives.3. Teaching Methods: In Western classrooms, there is often a more interactive and studentcentered approach, with teachers encouraging questions and discussions. Eastern teaching methods can be more teachercentered, with a focus on lectures and direct instruction.4. Assessment and Testing: Western education systems may use a variety of assessment tools, including projects, presentations, and class participation, in addition to exams. Eastern education systems typically place a heavy emphasis on standardized testing as the primary means of evaluation.5. Class Size: Western classrooms often have smaller studenttoteacher ratios, allowingfor more individualized attention. Eastern classrooms can be quite large, which may affect the level of personal attention each student receives.6. Student Autonomy: Western education often encourages students to take responsibility for their own learning and to make choices about their educational path. Eastern education systems may be more prescriptive, with less flexibility for students to choose their courses or learning pace.7. Cultural Values: The value placed on education in terms of cultural importance can differ. In many Eastern cultures, education is seen as a key to social mobility and is highly respected, often leading to a more competitive environment. In Western cultures, while education is also valued, there may be a greater emphasis on balance and wellbeing.8. Parental Involvement: Parental expectations and involvement can differ significantly. In some Eastern cultures, there is intense pressure on students to perform well academically, often driven by high parental expectations. In Western cultures, whileparents are involved, there may be more emphasis on supporting the childs interests and wellbeing.9. Higher Education: Western higher education systems often offer a broad range of majors and encourage exploration before settling on a specific field of study. Eastern higher education systems may have more structured paths, with less flexibility to change majors once enrolled.10. Longterm Goals: The ultimate goals of education can vary. In the West, the focus may be on developing wellrounded individuals capable of critical thinking and independent problemsolving. In the East, the emphasis might be on academic achievement and preparation for specific careers.In conclusion, while both Eastern and Western education systems have their merits and challenges, understanding these differences can lead to a more nuanced appreciation of the global landscape of education. Each system has its unique approach to fostering knowledge, skills, and values in students, and both can learn from each other to create more effective and holistic educational experiences.。
Teaching Systems Integration In An Advanced MicroprocessorApplications CoursePhil FabianoNew Jersey Institute of TechnologyUniversity HeightsNewark, New Jersey 07102AbstractThe New Jersey Institute of Technology's Electrical Engineering Technology program has developed an advanced microprocessor course that teaches systems integration, and develops the skills required to minimize development design time and costs. The course uses the generic technical concepts of microprocessor technology as a vehicle to learn the basic concepts of the systems integration process. It also emphasizes the use of available and reusable technologies to develop systems and products as well as the importance of documentation and test planning. This paper describes the content of the course with regard to the basic steps of the systems integration process.IntroductionSystems integration can be defined as the process of developing a system or product through the integration of available hardware and software technology. For example, a microprocessor based security system can be developed through the integration of an available microprocessor chip, memory chips, analog and digital devices, application programs, and I/O devices like keypads, LCD displays, alarms, and modems. The development of the system is achieved through the integration of these available technologies using relative simple analog and digital circuit design and programming.A course in microprocessor applications offers an excellent opportunity for developing student skills in systems integration. Students that enter a senior level microprocessor course are usually required to have prerequisite courses in basic electronics, logic design, and analog circuit design. In addition, a lower level microprocessor course that emphasizes assembly language programming is required. Given these prerequisites, an advance microprocessor course can focus on the concepts, techniques and methodologies associated with systems design and integration. The steps associated with systems integration include a statement of system requirements, the top level design, the second level design, detailed design, and test planning. Each of these steps is discussed below:Statement of RequirementsClearly defining the overall system requirements must be emphasized as a first step in teaching the systems integration process. These requirements are often referred to as the Product Requirements Specification (PRS) and define "what" must be done as opposed to "how" it will be done. Table 1 presents an example ofPRS type requirements for a motor control system.Table 1. Example of PRS RequirementsStudents tend to quickly start detailed design before having a clear understanding of all the requirements for what must be done. The tendency is to start the circuit design and coding as quickly as possible with the belief that the overall design will be completed quickly. It is quickly learns that incomplete specification of the overall requirements leads to problems that result in a significantly lengthened design cycle. Students should be taught that the start of the systems integration design process must include time for writing down and discussing with their supervisor, their understanding of the requirements for any work assignment. It is an essential element of the process to insure that what is understood as the design requirements is actually what is required by the designers customer (i.e. the work supervisor). Writing the requirements down as a formaldocument that is used to guide the design should be viewed as a system requirement that is as important as the design itself.Top Level DesignGiven an agreed to set of system requirements, the overall design can again. As a first step in the top level design process, a basic design approach should be defined. This represents the first aspect of defining "how" the system requirements will be met. In an advanced microprocessor course this involves defining the major system hardware units starting with the microprocessor and its memory system. A microprocessor rather than a microcontroller or PC is recommended because it requires that the student deal with the details of the microprocessor bussing system and its bus timing cycles in the later detailed hardware and software design. These aspects of the microprocessor are well suited to providing the student with a design experience involving the detailed integration of hardware and software. Using a microprocessor provides the student with an opportunity for working with detailed timing diagrams in order to achieve the required hardware design. Given this experience the student will be better prepared to design digital hardware circuits involving complex timing relationships.The top level design and its design approach should result in the following four elements of the design.1. A first level block diagram showing the majorsystem units and the specific technologies (eg. Intel 8086 microprocessor, "xyz" LCD display, etc.)selected for the system level design.2. A top level flow chart showing the overall logic ofthe system operation and identifying, by a descriptive name the software modules and subroutines that will be used for the software design.3. Memory and I/O maps showing the layout of thememory and the input and output devices relative to the addressing assignments.4. A written description of the overall design approachwith reference to the above three elements. As will be discussed later, it is recommended that this discussion be put on the software listing.Figures 1 and 2 present examples of a first level block diagram and top level flowchart. Figure 3 shows an example memory map, I/O map, and programming model. Figure 4 presents an example second level blockdiagram.Figure 1. Example First Level Block Diagram Reusability is a key topic stressed as an important aspect of the top level design process. Students are taught that taking a "reinventing the wheel" design approach is not desirable. Using developed and available hardware and software wherever possible is the preferable design approach. The systems integration process is stressed as being a process that heavily capitalizes on using previously hardware and software modules. The major design job is for the most part, designing the hardware and software required to effectively "glue" available technologies and designs together to meet the given system requirements including those for costs and schedule.Second Level Design As a next step in the systems integration process, the student is taught to break the top level design down to its second level. This involves taking the first level block diagram and top level flow chart and evolving the design to a second level hardware block diagram. At this level the hardware subunits required to interface the major hardware units in the overall system are identified and defined. Examples of these subunits include address decoders and control logic for selecting and controlling the major hardware units during software program executive, initialization circuits, interrupt control and vector generation circuits, and bus interface units. The second level hardware subunits are defined in conjunction with a clear understanding of the top level flowchart and defined software modules and subroutines. Reiteration in defining the top level design and the second level design is highlighted as a natural aspect of the systems integration process. That is, the student is taught that as the design process proceeds it is quite normal that redesign occurs at each level of the design process including the definition of requirements level.Figure 2. Example Top Level Flowchart Detailed DesignGiven a second level design the systems integration process can then move into the detailed design phase with detailed coding. This level should start by writing the required software modules and integrating the selected reusable subroutines. Starting with the detailed software design first is required because it is the software that determines and defines the timing diagrams associated and required for detailed hardware design. Modularity and reusability are again stress as primary factor in doing the detailed design. The detailed design approach taught is that a main program should be written to establish required initial conditions (eg. enabling interrupts, initialization of the stack pointer, initialization of data and interrupt vector tables, etc.). This main module functions as the overall coordinator by calling up the appropriate modules and subroutines as required.Given a first cut at the detailed coding and resulting I/O timing relationships, the detailed hardware design can begin. This is the actual integration aspect of the system design. The student is taught that the detailed software design and its resulting timing relationships must now be integrated with the detailed hardware design. Reiteration in the design process is again highlighted as being a natural part of the process.Completion of the detailed designs completes the paper design of the system. students are required to document the design right on the software listing. System requirements are first written as a statement of the Statement of Requirements. This is followed by a description of the overall design approach with reference to the first and second level block diagrams, top level flowchart, and memory and I/O maps. A description of the main program that follows with appropriate references to any required figures. This is then followed by its detailed coding with line comments.The main program is then followed by descriptions and coding for each of the modules and subroutines. Subroutine descriptions identify its calling address, user input requirements, and its output characteristics.Figure 3. Example Memory Map, I/O Map and Programming ModelTest PlanningIn order to facilitate testing the designed system,advanced test planning is emphasized. As the design process proceeds, designer awareness of testability is highlighted. The student is taught that achieving a good design includes achieving a design that is easily understood and tested. It is recommended to add additional hardware and software to achieve this worthwhile and cost saving objective. Establishing a test plan that defines the overall testing strategy, its specific tests, and the expected results are stressed as required items before starting the laboratory testing phase of the design process. The laboratory class associated with the microprocessor course supports this aspect of systems integration by requiring that pre-labs be written by the students.The pre-labs present the paper design and test plan and is required before laboratory testing activities can begin. In addition all of the code must be assembled and the hardware circuits built before testing.Concluding RemarksThe transition in thinking broadly in systems terms rather than narrowly in a specific hardware circuit or software program design, is not an easily transition for technology students. When applying the concepts discussed in this paper, instructors should avoid basing their lectures on complex designs. Instead simple design that can serve as the vehicles to learn the basic concepts of systems integration process should be used.Figure 4. Example Second Level Block diagram。