机械工程毕业论文外文翻译

毕业论文外文翻译：将外文参考文献翻译成中文版本。翻译要求：1、选定外文文献后先给指导老师看，得到老师的确认通过后方可翻译。2、选择外文翻译时一定选择外国作者写的文章，可从学校中知网或者外文数据库下载。3、外文翻译字数要求3000字以上，从外文文章起始处开始翻译，不允许从文章中间部分开始翻译，翻译必须结束于文章的一个大段落。参考文献是在学术研究过程中,对某一著作或论文的整体的参考或借鉴.征引过的文献在注释中已注明,不再出现于文后参考文献中。外文参考文献就是指论文是引用的文献原文是国外的，并非中国的。 原文就是指原作品,原件，即作者所写作品所用的语言。如莎士比亚的《罗密欧与朱丽叶》原文是英语。译文就是翻译过来的文字，如在中国也可以找到莎士比亚《罗密欧与朱丽叶》的中文版本，这个中文版本就称为译文。扩展资料：外文翻译需要注意的问题1、外文文献的出处不要翻译成中文，且写在中文译文的右上角（不是放在页眉处）；会议要求：名称、地点、年份、卷（期），等 。2、作者姓名以及作者的工作单位也不用必须翻译。3、abstract翻译成“摘要”，不要翻译成“文章摘要”等其他词语。4、Key words翻译成“关键词” 。5、introduction 翻译成“引言”(不是导言)。6、各节的标号I、II等可以直接使用，不要再翻译成“第一部分”“第二部分”，等。 7、注意排版格式，都是单排版，行距1.25，字号小4号，等（按照格式要求）。8、里面的图可以拷贝粘贴，但要将图标、横纵指标的英文标注翻译成中文。 9、里面的公式、表不可以拷贝粘贴，要自己重新录入、重新画表格。

（最好）不要某宝，不要个人，一定要选一个正规的润色机构——服务有保障，有售后，北京译顶科技做的不错，可以联系他们一下 终身满意。

问题一：毕业论文外文翻译是什么意思？有什么要求？ 外文翻译要求：（1）选定外文文献后先给指导老师看，得到老师的确认通过后方可翻译。（2）选择外文翻译时一定选择外国作者写的文章，可从学校中知网或者外文数据库下载。（3）外文翻译字数要求3000字以上，从外文互章起始处开始翻译，不允许从文章中间部分开始翻译，翻译必须结束于文章的一个大段落。 问题二：毕业论文的外文文献是什么意思?是说找一篇外文文献，然后把它翻译成中文吗？ 5分 是在知网上（应该是Ebhos罚差不多是这个，具体记不清了）找到一篇与你论文主旨相关的英文文章，然后可以从头翻译或者从当中开始翻译。 问题三：外文翻译是什么 5分 呵呵 就是找一篇和自己的论文相关的外文，翻译成中文即可！ 呵呵 问题四：毕业论文中的外文翻译可以在什么网站找到？ 先到百度文库，找一篇此类文档中文的，然后用有道翻译，或是谷歌在线翻译翻成英 文，然后把英文放上面，中文放下面。希望可以帮到你。如果要找标准的PDF格式外文文 献，可以在谷歌，用英文文献名+空格+PDF 这样比较容易找到。 第一是Google搜索，主要是英文，尤其是其学术搜索，意义大。 第二，通过各大学图书馆系统，进入几个主流的出版发行集团。 第三，利用网络免费储存、电子书系统。尤其是国外多。 1、论文题目：要求准确、简练、醒目、新颖。 2、目录：目录是论文中主要段落的简表。（短篇论文不必列目录） 3、提要：是文章主要内容的摘录，要求短、精、完整。字数少可几十字，多不超过三百字为宜。 4、关键词或主题词：关键词是从论文的题名、提要和正文中选取出来的，是对表述论文的中心内容有实质意义的词汇。关键词是用作机系统标引论文内容特征的词语，便于信息系统汇集，以供读者检索。每篇论文一般选取3-8个词汇作为关键词，另起一行，排在“提要”的左下方。主题词是经过规范化的词，在确定主题词时，要对论文进行主题，依照标引和组配规则转换成主题词表中的规范词语。 5、论文正文：（1）引言：引言又称前言、序言和导言，用在论文的开头。 引言一般要概括地写出作者意图，说明选题的目的和意义, 并指出论文写作的范围。引言要短小精悍、紧扣主题。〈2）论文正文：正文是论文的主体，正文应包括论点、论据、论证过程和结论。主体部分包括以下内容：a.提出-论点；b.分析问题-论据和论证；c.解决问题-论证与步骤；d.结论。 6、一篇论文的参考文献是将论文在和写作中可参考或引证的主要文献资料，列于论文的末尾。参考文献应另起一页，标注方式按《GB7714-87文后参考文献著录规则》进行。中文：标题--作者--出版物信息（版地、版者、版期）：作者--标题--出版物信息所列参考文献的要求是：（1）所列参考文献应是正式出版物，以便读者考证。（2）所列举的参考文献要标明序号、著作或文章的标题、作者、出版物信息。 一，选题要新颖。 这次我的论文的成功，和高分，得到导师的赞许，都是因为我论文的选题新颖所给我带来的好处。最好涉及护理新领域，以及新进展，这样会给人耳目一新的感觉。 二，大量文献做基础 仔细查阅和你论文题目和研究范围相关的文献，大量的文献查阅会你的论文写作铺垫，借鉴别人的思路，和好的语言。而且在写作过程不会觉得语言平乏，当然也要自己一定的语言功底做基矗 三，一气呵成 做好充分的准备，不要每天写一些，每天改一些，这样会打断自己的思路，影响文章的连贯。 四，尽量采用多的专业术语 可能口语化的表达会给人带来亲切感，但论文是比较专业的形式，是有可能做为文献来查阅和检索的，所以论文语言的专业化，术语化会提升自己论文的水平。 五，用正规格式书写 参考正规的论文文献，论文格式。不要因为格式问题，而影响到你论文的质量。 六，最好在计算机上完成写作过程 如果有条件最好利用电脑来完成写作过程，好处以下几点：1，节省时间，无论打字的速度慢到什么程度，肯定要比手写的快。2，方便，大量的文献放在手边，一个一个查阅是很不方便的，文献都是用数据库编辑，所以都是在电脑上完成。提前先在电脑上摘要出重点，写出提纲，随时翻阅，方便写作。3，修改编辑，在电脑随时对文章进行修改编辑都是非常的方便。4，随时存档，写一段，存一段，防止突然停电，或者电脑当机。本人就是吃了这个大亏，一个晚上的劳动......>> 问题五：外文参考文献怎么找 在中国期刊网ki/里找，有那种英文的文献，之后翻译过来。万方、维普都可以。或者直接到外人数据库找。 APS美国物理学会电子出版物 AIP美国物理研究所电子出版物 ASME美国机械工程师学会电子期刊 ASCE美国土木工程协会电子期刊 ACS美国化学学会数据库 IOP英国皇家物理学会期刊 RSC英国皇家化学学会期刊 AIAA美国航空航天学会 John Wiley电子期刊 Kluwer电子期刊 Springer LINK 电子期刊 EBSCO学术、商业信息数据库 Elsevier Science IEEE/IEE Electronic Library ACM Digital Library 但估计你们学校没有数据库。 如果找不到干脆找个中文的自己翻译过来算了。 问题六：外文文献引证号是什么 我看到有些只写一个数字，期刊号是不是第几期？如［2］何龄修.读顾城《南明史》［J］.中国史研究学刊,1998,(3):167－173这里面的（3）就是期刊号，这个是不是这个学术期刊的第3期 问题七：毕业论文中的外文翻译可以在什么网站找到？非常感谢！ 学校的数据库，中国知网应该都有，根据专业也可以选择国外比较有名的数据库，推荐几个我用过的吧 ABI，ACM，ASTP，American Chemical Society ，Blackwell Science-Blackwell synergy EBSCO综合类，强烈推荐，Engineering Index 工科是离不开EI的，IEEE 电子类必备，HighWire Press，ISI学术权威 ，National Technical Information Service 个人比较喜欢的，推荐 问题八：论文的外文翻译是什么意思 需要帮忙可以找我 外文翻译就是一篇跟你题目相关的文章然后翻译出来 问题九：毕设外文文献翻译和毕设是个什么关系？我怎么觉得外文翻译和我的毕设 文献翻译应该是毕业设计的前期准备工作吧，毕竟你需要知道你所选取的课题在国内外的研究现状才能确定研究方向啊 问题十：外文翻译是翻译什么 楼主您好：你只要用一种非中国语言的外语翻译一篇你的毕业论文即可！谢谢采纳！如果您满意的话就给五星评价吧！如有疑问请追问！

机械 ----------------------- 华文版本 Mechanics is the branch of physics concerned with the behaviour of physical bodies when subjected to forces or displacements, and the subsequent effect of the bodies on their environment. The discipline has its roots in several ancient civilizations. During the early modern period, scientists such as Galileo, Kepler, and especially Newton, laid the foundation for what is now known as Classical mechanics. Significance Mechanics is the original discipline of physics, dealing with the macroscopic world that humans perceive. It is therefore a huge body of knowledge about the natural world. Mechanics encompasses the movement of all matter in the universe under the four fundamental interactions (or forces): gravity, the strong and weak interactions, and the electromagnetic interaction. Mechanics also constitutes a central part of technology, the application of physical knowledge for humanly defined purposes. In this connection, the discipline is often known as engineering or applied mechanics. In this sense, mechanics is used to design and analyze the behavior of structures, mechanisms, and machines. Important aspects of the fields of mechanical engineering, aerospace engineering, civil engineering, structural engineering, materials engineering, biomedical engineering and biomechanics were spawned from the study of mechanics. Classical versus quantum The major division of the mechanics discipline separates classical mechanics from quantum mechanics. Historically, classical mechanics came first, while quantum mechanics is a comparatively recent invention. Classical mechanics originated with Isaac Newton's Laws of motion in Principia Mathematica, while quantum mechanics didn't appear until 1900. Both are commonly held to constitute the most certain knowledge that exists about physical nature. Classical mechanics has especially often been viewed as a model for other so-called exact sciences. Essential in this respect is the relentless use of mathematics in theories, as well as the decisive role played by experiment in generating and testing them. Quantum mechanics is of a wider scope, as it encompasses classical mechanics as a sub-discipline which applies under certain restricted circumstances. According to the correspondence principle, there is no contradiction or conflict between the two subjects, each simply pertains to specific situations. Quantum mechanics has superseded classical mechanics at foundational level and is indispensable for the explanation and prediction of processes at molecular and (sub)atomic level. However, for macroscopical processes classical mechanics is able to solve problems which are unmanageably difficult in quantum mechanics and hence remains useful and well used. Einsteinian versus Newtonian Analogous to the quantum versus classical reformation, Einstein's general and special theories of relativity have expanded the scope of mechanics beyond the mechanics of Newton and Galileo, and made small corrections to them. Relativistic corrections were also needed for quantum mechanics, although relativity is categorized as a classical theory. There are no contradictions or conflicts between the two, so long as the specific circumstances are carefully kept in mind. Just as one could, in the loosest possible sense, characterize classical mechanics as dealing with "large" bodies (such as engine parts), and quantum mechanics with "small" ones (such as particles), it could be said that relativistic mechanics deals with "fast" bodies, and non-relativistic mechanics with "slow" ones. However, "fast" and "slow" are subjective concepts, depending on the state of motion of the observer. This means that all mechanics, whether classical or quantum, potentially needs to be described relativistically. On the other hand, as an observer, one may frequently arrange the situation in such a way that this is not really required. Types of mechanical bodies Thus the often-used term body needs to stand for a wide assortment of objects, including particles, projectiles, spacecraft, stars, parts of machinery, parts of solids, parts of fluids (gases and liquids), etc. Other distinctions between the various sub-disciplines of mechanics, concern the nature of the bodies being described. Particles are bodies with little (known) internal structure, treated as mathematical points in classical mechanics. Rigid bodies have size and shape, but retain a simplicity close to that of the particle, adding just a few so-called degrees of freedom, such as orientation in space. Otherwise, bodies may be semi-rigid, i.e. elastic, or non-rigid, i.e. fluid. These subjects have both classical and quantum divisions of study. For instance: The motion of a spacecraft, regarding its orbit and attitude (rotation), is described by the relativistic theory of classical mechanics. While analogous motions of an atomic nucleus are described by quantum mechanics. Sub-disciplines in mechanics The following are two lists of various subjects that are studied in mechanics. Note that there is also the "theory of fields" which constitutes a separate discipline in physics, formally treated as distinct from mechanics, whether classical fields or quantum fields. But in actual practice, subjects belonging to mechanics and fields are closely interwoven. Thus, for instance, forces that act on particles are frequently derived from fields (electromagnetic or gravitational), and particles generate fields by acting as sources. In fact, in quantum mechanics, particles themselves are fields, as described theoretically by the wave function. Classical mechanics The following are described as forming Classical mechanics: Newtonian mechanics, the original theory of motion (kinematics) and forces (dynamics) Lagrangian mechanics, a theoretical formalism Hamiltonian mechanics, another theoretical formalism Celestial mechanics, the motion of stars, galaxies, etc. Astrodynamics, spacecraft navigation, etc. Solid mechanics, elasticity, the properties of (semi-)rigid bodies Acoustics, sound in solids, fluids, etc. Statics, semi-rigid bodies in mechanical equilibrium Fluid mechanics, the motion of fluids Soil mechanics, mechanical behavior of soils Continuum mechanics, mechanics of continua (both solid and fluid) Hydraulics, fluids in equilibrium Applied / Engineering mechanics Biomechanics, solids, fluids, etc. in biology Statistical mechanics, large assemblies of particles Relativistic or Einsteinian mechanics, universal gravitation Quantum mechanics The following are categorized as being part of Quantum mechanics: Particle physics, the motion, structure, and reactions of particles Nuclear physics, the motion, structure, and reactions of nuclei Condensed matter physics, quantum gases, solids, liquids, etc. Quantum statistical mechanics, large assemblies of particles Professional organizations Applied Mechanics Division, American Society of Mechanical Engineers Fluid Dynamics Division, American Physical Society