英文介绍一下热能与动力工程
貌似热能与动力工程研究的传热学、工程热物理、流体力学等。而内燃机只是工程热物理透平方向一个很小的面,你还是改改吧,
至于“研究如何把燃料的化学能和液体的动能安全、高效、低(或无)污染地转换成动力的基本规律和过程,研究转换过程中的系统和设备的自动控制技术。”就更离谱了,完全对燃烧学和热力学一点概念都没有
Institute of Engineering Thermophysics grew out of the Power Laboratory of Chinese Academy of Sciences established in 1956 by Professor Wu Chunghua, a world famous scientist and the creator of the theory of three-dimensional flows in turbomachinery. After more than five decades,development, it has become a high-tech institute in both applied science and research development. According to the demands of the development of the branch of learning, economic construction and the high-tech development in energy resources, the institute has succeeded in adjusting its research from aero-engine to energy resources and power engineering, and from energy resources and power engineering to energy resources, power engineering and environment protection. At the same time, the institute has grown stronger and stronger, made great contribution to the development of economy, society as well as the safety and scientific discipline construction of the country. At present, there are 166 staffs in the institute, including two academicians of Chinese Academy of Sciences. The institute has master,s degree and Ph.D degree programs of the first-tier discipline--- Power Engineering and Engineering Thermophysics and master,s degree program of the second tier--- Environment Engineering and also has a mobile station of postdoctoral program
Thermal energy and power engineering
This program is to cultivate both master thermal energy and power engineering professional basic theoretical knowledge, computing skills, but also the ability in various forms of generating power plant, refrigeration and air conditioning, new energy related fields in need of economic management knowledge and ability, can be engaged in the electric power industry related to areas of science and technology application, research, development and management of a senior talents. According to the national construction and talents needs, set up the professional direction includes: thermal power engineering, power plant set control operation, refrigeration and air conditioning engineering, gas power engineering, advanced energy engineering etc.
Major courses: theoretical mechanics, mechanics of materials, engineering thermodynamics, engineering fluid mechanics, heat transfer, turbine principle, boiler principle, thermal power plants, the pump and fan, automatic control theory, motor learning, circuit theory, the control system, unit unit operation principle, thermal process detection technology, engineering graphics, mechanical design basis, electrician technical basis, electronic technology base, refrigeration and cryogenic principle, refrigeration compressor, refrigeration automation and testing technology, gas turbine principle, gas gas-steam combined cycle power plant, gas turbine combined-cyde operation and maintenance, nuclear reactor theoretical basis, nuclear system and the maintenance, the PWR nuclear power plant system and equipment, wind power generation principle, professional class.
Employment place to go: large-scale modernized electric power enterprise, power equipment manufacturing enterprises and energy class enterprise engaged in production, operation and management work, Government departments at all levels and institution engaged in energy, power, energy saving, environmental planning, design, construction, operation, consultation and supervision worketc. Research institutes, universities in energy and power related research and development, teaching, management, etc.
学好了英语才能有机会进BV这样的业内著名外企。英语不好的话老外面试就过不去。长期发展来讲,学好英语对以后的职业发展也是有不小的帮助,毕竟英语是一门工具学科,可能以后你阅读文献资料,都可能用的到。
能源与动力工程是普通高等学校本科专业,属于能源动力类专业。本专业以热工、力学和机械科学理论为基础,以计算机和控制技术为工具,培养具备能源生产、转化、利用与动力系统研发基本理论和应用技术,以及具备节能减排理念,能在工业、国防、民用等领域从事能源动力、人工环境、新能源研究开发、优化设计、先进制造、智能控制、应用管理等工作的高级科技人才。
能源与动力工程致力于传统能源的利用及新能源的开发,和如何更高效的利用能源。能源既包括水、煤、石油等传统能源,也包括核能、风能、生物能等新能源,以及未来将广泛应用的氢能。动力方面则包括内燃机、锅炉、航空发动机、制冷及相关测试技术。2012年教育部新版高校本科专业目录中调整热能与动力工程为能源与动力工程。
2、能源与动力工程专业主要课程
工程力学、机械设计基础、机械制图、电工与电子技术、工程热力学、流体力学、传热学、控制理论、测试技术、燃烧学 等。
3、能源与动力工程专业培养目标
培养目标
本专业学生主要学习动力工程及工程热物理的基础理论,学习各种能量转换及有效利用的理论和技术,受到现代动力工程师的基本训练,具有进行动力机械与热工设备设计、运行、实验研究的基本能力。
培养要求
毕业生应获得以下几方面的知识和能力:
1.具有较扎实的自然科学基础,较好的人文、艺术和社会科学基础及正确运用本国语言、文字的表达能力;
2.较系统地掌握本专业领域宽广的技术理论基础知识,主要包括工程力学、机械学、工程热物理、流体力学、电工与电子学、控制理论、市场经济及企业管理等基础知识;
3.获得本专业领域的工程实践训练,具有较强的计算机和外语应用能力;
4.具有本专业领域内某个专业方向所必要的专业知识,了解其科学前沿及发展趋势;
5.具有较强的自学能力、创新意识和较高的综合素质。
4、能源与动力工程专业就业方向与就业前景
本专业毕业生就业不存在问题,学生毕业后可到相关的国家机关、科研院所、流体机械制造企业以及水电行业、航空航天部门、水利部门及与流体工程设计相关的其他单位从事生产、教学、科研、销售、管理等工作。
二、能源与动力工程专业大学排名
1. 西安交通大学 A++
2.清华大学A++
3. 哈尔滨工业大学 A++
4. 上海交通大学 A++
5.华中科技大学A++
6. 东南大学 A++
7.天津大学A++
8. 北京科技大学 A+
9.重庆大学A+
10. 山东大学 A+
11. 华北电力大学 (保定)A+
12.华东理工大学A+
13.北京航空航天大学A+
14. 江苏大学 A+
15.兰州理工大学A+
16.上海理工大学A+
17. 大连理工大学 A+
18. 南京工业大学 A+
19.哈尔滨工程大学A+
20.青岛科技大学A+
Over the last 20 years, mainly due to the vibration caused by the fatal accidents occurred one after another, inflicting huge economic losses. Furthermore, the vibration is still new to large units shipped impossible grid, the normal operation for the main the crew during normal operations, continuous vibration problems affecting the normal production, Units often reduced load and operation of the sick, and even the unit was forced to stand, these incidents not uncommon. The system based on LabVIEW virtual instrument software platform for turbine vibration signal window read, and spectral analysis and correlation analysis. LabVIEW virtual instrument is a common core of computer hardware platform, defined by the user, with virtual front panel, the test function test software from a computer equipment system. The system completed the turbine vibration signal read, the signal rectangular window Hanning, Hamming window window choice, and then the signal amplitude spectrum, power spectrum and phase spectrum analysis and correlation analysis, and operating with graphics and display interface. The result of running the system proved that the system can accomplish the signal read, and three window function and the dynamic analysis of the various options and graphical display with the results.
专业前景 本专业以工程热物理学科为主要理论基础,以内燃机和正在发展中的其它新型动力机械及系统为研究对象,运用工程力学、机械工程学、自动控制、计算机、环境科学、微电子技术等学科的知识和内容,研究如何把燃料的化学能和液体的动能安全、高效、低(或无)污染地转换成动力的基本规律和过程,研究转换过程中的系统和设备的自动控制技术。随着常规能源的日渐短缺,人类环境保护意识的不断增强,节能、高效、降低或消除污染排放物、发展新能源及其它可再生能源成为本学科的重要任务,在能源、交通运输、汽车、船舶、电力、航空宇航工程、农业工程和环境科学等诸多领域获得越来越广泛的应用,在国民经济各部门发挥着越来越重要的作用。 培养目标 本专业方向培养具备热能与动力工程专业方面的基本理论、基本知识和基本技能,能在国民经济各部门从事热力发动机和其它新型动力机械及设备的设计、制造、管理、教学和科研等方面的高级工程技术人才。 培养特色 本专业在加强学生基础理论和综合素质教育的同时,加强计算机及自动控制技术的应用,强化专业实践教学,注重全能训练,全面提高学生的实践动手能力和科学研究潜力,使毕业生具有较强的择业竞争能力和较宽的就业适应能力。 主干课程 机械制图、机械原理、机械设计、理论力学、材料力学、工程材料、电工技术、电子技术、计算机软件基础、液压技术、液力传动、内燃机构造、内燃机原理、内燃机设计、内燃机试验、发动机电子技术、工程热力学、流体力学、传热学、自动控制理论、现代测试技术等。 就业方向 毕业后可从事能源与动力设备的行政管理、内燃机及新型动力设备的开发研制、内燃机排放控制、新能源利用、汽车工业、兵器工业、环保工业、交通运输业、船舶、电力、航空宇航工业等方面的工作。
The prospect of major works of the major hot in physics as the main theoretical basis to the internal combustion engine and the other is the development of new machinery and power systems for the study, the use of engineering mechanics, mechanical engineering, automation, computers, environmental science, microelectronics technology disciplines, such as content knowledge and to study how the chemical energy of fuel and liquid kinetic energy security, high-performance, low (or none) of pollution to the power into the basic law and the process of research in the conversion process of the automatic control systems and equipment technology . With the growing shortage of conventional energy, human the growing awareness of environmental protection, energy saving, high efficiency, reduce or eliminate polluting emissions, the development of new energy and other renewable sources of energy has become an important task for the subjects in the energy, transportation, automotive, ships, electricity, aviation aerospace engineering, agricultural engineering and environmental science in many fields such as access to more and more widely used, the department in the national economy is playing an increasingly important role. Cultivate cultivate goal with the direction of the major thermal power projects with the major aspects of the basic theory, basic knowledge and basic skills, to engage in various departments in the national economy and other heat engines power the new machinery and equipment design, manufacture, management, teaching and scientific research aspects of advanced engineering and technical personnel. Cultivate major characteristics of the students in strengthening the basic theory and the overall quality of education, to strengthen the computer and automatic control technology, and strengthen the teaching of professional practice, pay attention to all the training, students enhance the practice of comprehensive practical ability and scientific research potential, so that graduates have strong competitiveness and a wide choice of employment adaptability. Mechanical Drawing trunk curriculum, mechanical principles, mechanical design, theoretical mechanics, mechanics of materials, engineering materials, electrical technology, electronics technology, computer software foundation, hydraulic technology, hydraulic transmission, the internal combustion engine structure, the principle of internal combustion engines, internal combustion engine design, the internal combustion engine testing, engine electronic technology, engineering thermodynamics, fluid mechanics, heat transfer, automatic control theory, modern test technology. Employment after graduation can be engaged in the direction of energy and power equipment, administration, internal combustion engines and new development of power equipment, internal combustion engine emission control, new energy use, the auto industry, the weapons industry, industrial environmental protection, transport, shipping, electricity, air space industrial job.
Motor vehicles are not the only air polluters. Coal and oil, used to heat homes and factories and to generate electricity, contain small amounts of sulfur. When the fuels are burned, sulfur dioxide, a poisonous gas, is produced. It is irritating to the lungs. Some cities have passed laws that allow coal and oil to be burned only if their sulfur content is low.
汽车不是唯一的空气污染。煤炭和石油,用于家庭取暖和工厂,并产生电力,含有少量的硫。当燃料燃烧,二氧化硫,一种有毒气体,就产生了。它是刺激到肺部。一些城市已通过法律,允许煤炭和石油只有在其被烧毁硫含量低。
Most electricity is generated by steam turbines. About half of the sulfur dioxide in the air comes from burning fuel to make steam. Nuclear power plants do not burn fuel, so there is no air pollution of the ordinary kind. But the radioactive materials in these plants could present a danger in an accident. Also, there is a problem in disposing of the radioactive wastes in a way that will not endanger the environment.
大部分电力是由蒸汽涡轮机。关于空气中的二氧化硫,使蒸汽一半来自燃料燃烧。核电厂不烧燃料,所以不存在的那种普通的空气污染。但是,在这些植物的放射性物质可能会提出一个意外的危险。此外,还有一个在放射性废物处置的方式,不会危害环境的问题。
Another type of pollution, called thermal (heat) pollution, is caused by both the fuel-burning and nuclear plants. Both need huge amounts of cold water, which is warmed as it cools the steam. When it is returned to the river, the warm water may stimulate the growth of weeds. It may also kill fish and their eggs, or interfere with their growth.
另一种污染类型,称为热(热)污染,是造成双方的燃料燃烧和核电厂。双方都需要的冷水,这是温暖,因为它大量的蒸汽冷却。当返回到河边,温暖的水会刺激杂草生长。它也可以杀死鱼,它们的卵,或干扰他们的成长。
Physicists are studying new ways of generating electricity that may be less damaging to the environment. In the meantime, many power plants are being modernized to give off less polluting material. Also, engineers try to design and locate new power plants to do minimum damage to the environment.
物理学家们正在研究发电对环境损害较小的新方法。与此同时,许多发电厂也在实现现代化以减少污染物质。此外,工程师们尝试设计并找到对环境的损害最小的新的发电厂。
Thermal energy and power engineering
This program is to cultivate both master thermal energy and power engineering professional basic theoretical knowledge, computing skills, but also the ability in various forms of generating power plant, refrigeration and air conditioning, new energy related fields in need of economic management knowledge and ability, can be engaged in the electric power industry related to areas of science and technology application, research, development and management of a senior talents. According to the national construction and talents needs, set up the professional direction includes: thermal power engineering, power plant set control operation, refrigeration and air conditioning engineering, gas power engineering, advanced energy engineering etc.
Major courses: theoretical mechanics, mechanics of materials, engineering thermodynamics, engineering fluid mechanics, heat transfer, turbine principle, boiler principle, thermal power plants, the pump and fan, automatic control theory, motor learning, circuit theory, the control system, unit unit operation principle, thermal process detection technology, engineering graphics, mechanical design basis, electrician technical basis, electronic technology base, refrigeration and cryogenic principle, refrigeration compressor, refrigeration automation and testing technology, gas turbine principle, gas gas-steam combined cycle power plant, gas turbine combined-cyde operation and maintenance, nuclear reactor theoretical basis, nuclear system and the maintenance, the PWR nuclear power plant system and equipment, wind power generation principle, professional class.
Employment place to go: large-scale modernized electric power enterprise, power equipment manufacturing enterprises and energy class enterprise engaged in production, operation and management work, Government departments at all levels and institution engaged in energy, power, energy saving, environmental planning, design, construction, operation, consultation and supervision worketc. Research institutes, universities in energy and power related research and development, teaching, management, etc.
一、能源与动力工程专业介绍:热能与动力工程专业又名能源与动力工程,热能与动力工程专业培养具备热能工程、传热学、流体力学、动力机械、动力工程等方面基础知识,能在国民经济和部门从事动力机械(如热力发动机、流体机械、水力机械)的动力工程(如热电厂工程、水电动力工程、制冷及低温工程、空调工程)的设计、制造、运行、管理、实验研究和安装、开发、营销等方面的高级工程技术人才。该专业学生主要学习动力工程及工程热物理的基础理论,具有进行动力机械与热工设备设计、运行、实验研究的基本能力。
二、专业方向:热能动力及控制工程(电厂方向)、流体机械与制冷低温工程、内燃机及汽车工程
三、专业课程:
1、专业基本课程(该专业所有方向均要学习的课程):传热学、工程热力学、流体力学理论力学、材料力学、电工电子、工程制图、机械设计基础、工程材料基础、控制工程、测试技术。
2、不同方向专业课:(1)热能动力及控制工程(电厂方向):锅炉原理、热力涡轮机械原理、发电厂系统及设备、加热炉
(2)流体机械与制冷低温工程:流体机械原理、容积式压缩机原理、制冷原理与装置、低温原理与装置
(3)内燃机及汽车工程:内燃机原理、内燃机构造、汽车构造、汽车理论
四、能源与动力工程专业怎么样?(学长学姐评价)
华北电力大学:热能与动力工程在我们学校主要针对火力发电厂,目前看还不错,毕竟是电力行业。我们学校的电力系统及其自动化更好,毕业进供电局什么的,应该说比电厂好。
河北科技大学:我们学校的热能专业主攻的是制冷方向,不是人们第一印象的电厂、内燃机方向。我在那里生活了四年,不好很客观的说。如果你的弟弟、妹妹成绩比较好的话建议去西安交通大学吧,那里的热能专业方向比较全而且在全国里,那里应该是数一数二的。
东北大学:客观讲,学科实力在全国应该属于二流水平,和清华,浙大,上交,西交差一些。但是整体而言,应该是不错的学科,是辽宁省重点学科。就业形势很好,真的,本科生平均能找三份工作可以挑选。这个专业对口的主要是钢铁行业,就业单位比如宝钢,赛迪等各大钢铁企业和设计院。在钢铁行业,东北大学的热能还是响当当的,这些是别的学校的热能比不了的。建议女生不要来这个专业,女生这个专业特别不好找工作。其他的比如考研啊,什么的还是不错的,不少学生也能有机会获得保送机会直接上研究生,也要保送到比如中科院,清华,浙大等学校去读的,保研比例大概在20%-30%之间。东大的学习氛围还是不错的。
哈尔滨工业大学:在我们学校热动属于汽车专业,是跟内燃机有关的,将来毕业就业一般是在汽车行业,汽车专业在我们学校是最好就业的一个学校,假如考研的话,我推荐本科汽车研究生搞电控,就现在我工作的情况来看,研究生搞电急需的比较多,不知道几年后会是怎么样,如果你能报我们学校车辆工程专业的话推荐报这个,这是汽车里最好的一个专业。热动属于汽车学院中中等的专业,照这几年的情况来看,毕业后找工作比较轻松。
东南大学:热动在我们学校属于二流专业中比较好的了,最好的是建筑和无线电。发展前景在我们学校来说一般,主要研究活力发电厂的相关技术,但你要在清华之类的学校还是有很多东西可研究的。
以上由大学生成长网整理发布,希望对报考此专业的学弟学妹们有所帮助。
能源与动力工程专业的培养方向主要涉及热力发电、空调制冷、内燃机、新能源等方向。接下来分享一下能源与动力工程专业的就业方向。
能源与动力工程专业介绍
能源与动力工程是2012年教育部批准设置的普通高等学校本科专业,属能源动力类专业,基本修业年限为四年,授予工学学士学位,是以工程热物理相关理论为基础,面向能源转化利用及动力系统领域的专业。
能源与动力工程专业的培养方向主要涉及热力发电、空调制冷、内燃机、新能源等方向。热力发电方向要求侧重掌握热力发电相关的知识技能,空调制冷方向要求侧重掌握空调、冷库相关的知识技能,内燃机方向要求侧重掌握车用发动机相关的知识技能,新能源方向要求侧重掌握新能源开发方面的知识技能。
能源与动力工程专业就业方向能源与动力工程专业毕业生能从事能源与动力工程及相关方面的研究、教学、开发、制造、安装、检修、策划、管理和营销等工作。也可在本专业或其它相关专业继续深造,攻读硕士、博士学位。可在大型企业、相关公司以及相关的研究所、设计院、高等院校和管理部门从事热能工程、动力工程、制冷工程方面的研究与设计、产品开发、制造、试验、管理、教学等工作。
主要就业方向为发电厂、内燃机厂、汽车制造厂、物流调控、锅炉厂、大型机械厂、造船厂、空调厂、制冷设备厂、暖通工程等等。
能源与动力工程专业属于工学类。
全国本科专业分为12大学科门类:哲学、经济学、法学、教育学、文学、历史学、理学、工学、农学、医学、管理学、艺术学。
能源与动力工程专业介绍:
1、专业介绍:
能源与动力工程致力于传统能源的利用及新能源的开发,和如何更高效的利用能源。能源既包括水、煤、石油等传统能源,也包括核能、风能、生物能等新能源,以及未来将广泛应用的氢能。动力方面则包括内燃机、锅炉、航空发动机、制冷及相关测试技术。
2012年教育部新版高校本科专业目录中调整热能与动力工程为能源与动力工程。
能源与动力工程专业学生主要学习动力工程及工程热物理的基础理论,学习各种能量转换及有效利用的理论和技术,受到现代动力工程师的基本训练,具有进行动力机械与热工设备设计、运行、实验研究的基本能力。
2、专业课程: 工程力学、机械设计基础、机械制图、电工与电子技术、工程热力学、流体力学、传热学、控制理论、测试技术、燃烧学等。
机械,源自于希腊语之Mechine及拉丁文Machina,原指"巧妙的设计",作为一般性的机械概念,可以追溯到古罗马时期,主要是为了区别与手工工具。现代中文之"机械"一词为机构为英语之(Mechanism)和机器(Machine)的总称。机械的特征有:机械是一种人为的实物构件的组合。机械各部分之间具有确定的相对运动。故机器能转换机械能或完成有用的机械功,是现代机械原理中的最基本的概念,中文机械的现代概念多源自日语之"机械"一词,日本的机械应用品对机械概念做如下定义(即符合下面三个特征称为机械Machine)。
培养目标
能源动力系统及自动化专业研究将煤炭、石油、天然气等一次能源转化为电力、热能等二次能源的生产和利用过程研究人工环境、制冷空调、低温生物医学等领域的科学技术问题还研究风能、太阳能、生物质能等新能源的开发利用。伴随能源转换与利用过程排放的有害物质将造成环境污染,能源的生产必须高效、清洁。能源与环境系统专业不仅对自动化控制十分依赖,而且是一个复杂系统工程,集合了热科学、力学、材料科学、机械制造、环境科学、计算机科学、自动控制科学、系统工程科学等高新科学技术。能源与环境系统工程专业具有很宽的专业知识面,是一个能源、环境与控制三大学科交叉的复合型专业。